mhurhangee/patent-ind-claim-en huggingface dataset:
A WC set to be mounted onto a WC body having a WC bowl, which WC set comprises a first and a second set part, the first set part being pivotable upwards and downwards in the mounted state relative to the WC body and relative to the second set part with respect to a rotation axis and being supported on the WC set by an articulation of the WC set, which articulation enables the pivoting movement and comprises a stud (6-6", 14, 15) comprising the rotation axis and a receptacle , which stud (6-6", 14, 15) and which receptacle respectively belong to a respective one of the set parts , which receptacle is engaged by the stud (6-6", 14, 15) in the mounted state, wherein the receptacle comprises an insertion element on one of the set parts , the insertion element being supported in a support rotatably around the rotation axis, the support is mounted on the set part and the insertion element is supported in the support rotatably relative thereto and relative to the complete WC set and the support and the insertion element respectively have an opening radially offset with respect to the rotation axis and comprising a circumferential portion with regard thereto which two openings can be brought into and out of an overlap by a relative rotation between the insertion element and the support , enable a radial movement of the stud (6-6", 14, 15) out of the insertion element and the support via the two openings in the overlap in a certain pivoting position of the first set part and thus a mutual separation of the first and the second set part, and are blocked with regard to this movement and separation outside of the overlap, wherein the insertion element is accessible for a user and can be rotated relative to the support by the user, wherein the insertion element is accessible for the user via an access opening in the support and comprises a projection projecting radially outwardly with respect to the rotation axis for a manipulation by the user, and the access opening is an opening for the projection radially spaced from the rotation axis and comprising a circumferential portion, so that the projection is accessible for the user in the mounted state and can move in a circumferential direction in the access opening during a relative rotation between the insertion element and the support , characterised in that the projection abuts against a portion of the WC set, rotated during the pivoting movement relative to the set part to which the insertion element belongs, during the downward pivoting of the first set part relative to the second set part , and that the projection , thus, is rotated relative to the set part to which the insertion element belongs, namely such that the overlap of the openings of the insertion element and the support is ended thereby and the first and the second set parts are mutually latched, thus.
A method comprising: receiving , by a processing thread executing on a host server, a container request to create a container on the host server by employing a container engine, wherein the container request indicates a first resource constraint and a second resource constraint for executing an application within the container, wherein the second resource constraint indicates an absolute amount of resource required for the execution of the application; analyzing , by the processing thread, the container request to determine that the container engine does not allow resource allocation according to the second resource constraint; directing , by the processing thread, the container engine to create an operating environment for the container according to the first resource constraint and to execute the container on the host server when the container engine allows resource allocation according to the first resource constraint; reserving , by the processing thread, a first resource from an operating system, OS, of the host server according to the second resource constraint of the container request when the container engine does not allow resource allocation according to the second resource constraint; and updating dynamically , by the processing thread, the operating environment of the container to enable the container to directly utilize the reserved first resource for execution of the application to meet the second resource constraint of the container request. receiving , by a processing thread executing on a host server, a container request to create a container on the host server by employing a container engine, wherein the container request indicates a first resource constraint and a second resource constraint for executing an application within the container, wherein the second resource constraint indicates an absolute amount of resource required for the execution of the application; analyzing , by the processing thread, the container request to determine that the container engine does not allow resource allocation according to the second resource constraint; directing , by the processing thread, the container engine to create an operating environment for the container according to the first resource constraint and to execute the container on the host server when the container engine allows resource allocation according to the first resource constraint; reserving , by the processing thread, a first resource from an operating system, OS, of the host server according to the second resource constraint of the container request when the container engine does not allow resource allocation according to the second resource constraint; and updating dynamically , by the processing thread, the operating environment of the container to enable the container to directly utilize the reserved first resource for execution of the application to meet the second resource constraint of the container request.
A method for determining an internal gas generation acceleration section of a secondary battery, the method comprising: measuring (S100) a closed circuit voltage (CCV) and an open circuit voltage (OCV) according to a charge amount (SOC) of the secondary battery while charging the secondary battery; deriving (S200) the closed circuit voltage (SOC-CCV) profile according to the charge amount and the open circuit voltage (SOC-OCV) profile according to the charge amount; and determining (S300) a section in which an internal gas generation amount of the secondary battery is rapidly increased from the derived SOC-CCV profile and SOC-OCV profile, characterized in that the secondary battery includes one or more small cells having a capacity of 1 Ah or less, and the small cells are electrically connected to each other, wherein an internal gas generation acceleration section for a medium-large cell module is predicted by charging the small cell under a simulation condition of the medium-large cell module, and wherein the simulation condition of the medium-large cell module is a condition that a front surface of the small cell is wrapped with a heat insulating member in order to block a heat leakage to the outside. measuring (S100) a closed circuit voltage (CCV) and an open circuit voltage (OCV) according to a charge amount (SOC) of the secondary battery while charging the secondary battery; deriving (S200) the closed circuit voltage (SOC-CCV) profile according to the charge amount and the open circuit voltage (SOC-OCV) profile according to the charge amount; and determining (S300) a section in which an internal gas generation amount of the secondary battery is rapidly increased from the derived SOC-CCV profile and SOC-OCV profile, characterized in that the secondary battery includes one or more small cells having a capacity of 1 Ah or less, and the small cells are electrically connected to each other, wherein an internal gas generation acceleration section for a medium-large cell module is predicted by charging the small cell under a simulation condition of the medium-large cell module, and wherein the simulation condition of the medium-large cell module is a condition that a front surface of the small cell is wrapped with a heat insulating member in order to block a heat leakage to the outside.
A programmable integrated circuit device comprising: an input for configuration data for said programmable integrated circuit device , wherein an original portion of the configuration data is at least partially encrypted according to a first encryption scheme and an additional portion of said configuration data is at least partially encrypted according to second encryption scheme, wherein said second encryption scheme is different from the first encryption scheme; a plurality of key stores operable to store a plurality of keys for said first and second encryption schemes; control circuitry operable to identify respective required keys from said at least partially encrypted original portion and additional portion of said configuration data and to generate respective key selection signals ; and key selection circuitry responsive to said key selection signals , wherein the key selection circuitry is operable to read said plurality of key stores and to provide said respective required keys to said control circuitry ; wherein said control circuitry includes decryption circuitry operable to decrypt said at least partially encrypted original portion and additional portion of said configuration data using said respective required keys; wherein said programmable integrated circuit device is partially reconfigurable by writing said additional portion of said configuration data into said input . an input for configuration data for said programmable integrated circuit device , wherein an original portion of the configuration data is at least partially encrypted according to a first encryption scheme and an additional portion of said configuration data is at least partially encrypted according to second encryption scheme, wherein said second encryption scheme is different from the first encryption scheme; a plurality of key stores operable to store a plurality of keys for said first and second encryption schemes; control circuitry operable to identify respective required keys from said at least partially encrypted original portion and additional portion of said configuration data and to generate respective key selection signals ; and key selection circuitry responsive to said key selection signals , wherein the key selection circuitry is operable to read said plurality of key stores and to provide said respective required keys to said control circuitry ; wherein said control circuitry includes decryption circuitry operable to decrypt said at least partially encrypted original portion and additional portion of said configuration data using said respective required keys; wherein said programmable integrated circuit device is partially reconfigurable by writing said additional portion of said configuration data into said input .
Washing module for an automated washing unit of a heavy-duty vehicle, comprising a casing with an opening oriented towards the heavy-duty vehicle, wherein inside the casing there are arranged cleaning agent discharge means for discharging cleaning agents on the heavy-duty vehicle through the opening, the washing module being characterised in that inside the casing there are also arranged extraction means for extracting the cleaning agents discharged on the heavy-duty vehicle.
A laundry composition comprising a plurality of particles, wherein the particle comprises: (a) 30 to 95% of polyethylene glycol by weight of the particle; (b) surfactant selected from anionic surfactant, nonionic surfactant, or a combination thereof; and (c) occlusions of gas; wherein the surfactant is anionic surfactant; and wherein the particle comprises saccharides. (a) 30 to 95% of polyethylene glycol by weight of the particle; (b) surfactant selected from anionic surfactant, nonionic surfactant, or a combination thereof; and (c) occlusions of gas; wherein the surfactant is anionic surfactant; and wherein the particle comprises saccharides.
Method for the surface processing of an aluminum article, which is characterized in that it comprises: - a step of engraving an aluminum article by means of vibratory finishing, wherein a plurality of impacting bodies hits at least one surface of said aluminum article , forming a grooved surface provided with a plurality of grooves ; wherein said impacting bodies employed in said vibratory finishing are provided with an extension comprised between 0.5 and 7 cm, are provided with at least one pointed portion for scratching said surface and are provided with a hardness greater than the hardness of said aluminum article ; - a subsequent step of anode oxidation of the grooved surface of said aluminum article , generating a colorable aluminum oxide layer having: - a first thickness (T1) of aluminum oxide at said grooves , and - a second thickness (T2) of aluminum oxide at the remaining regions of said surface free of said grooves ; said first thickness (T1) being smaller than said second thickness (T2); - a subsequent step of dyeing said colorable aluminum oxide layer along said first and second thickness (T1, T2) in order to color the first thickness (T1) of said aluminum oxide layer with a corresponding first coloring depth and to color the second thickness (T2) of said aluminum oxide layer with a corresponding second coloring depth greater than the first depth. - a step of engraving an aluminum article by means of vibratory finishing, wherein a plurality of impacting bodies hits at least one surface of said aluminum article , forming a grooved surface provided with a plurality of grooves ; wherein said impacting bodies employed in said vibratory finishing are provided with an extension comprised between 0.5 and 7 cm, are provided with at least one pointed portion for scratching said surface and are provided with a hardness greater than the hardness of said aluminum article ; - a subsequent step of anode oxidation of the grooved surface of said aluminum article , generating a colorable aluminum oxide layer having: - a first thickness (T1) of aluminum oxide at said grooves , and - a second thickness (T2) of aluminum oxide at the remaining regions of said surface free of said grooves ; said first thickness (T1) being smaller than said second thickness (T2); - a first thickness (T1) of aluminum oxide at said grooves , and - a second thickness (T2) of aluminum oxide at the remaining regions of said surface free of said grooves ; said first thickness (T1) being smaller than said second thickness (T2); - a subsequent step of dyeing said colorable aluminum oxide layer along said first and second thickness (T1, T2) in order to color the first thickness (T1) of said aluminum oxide layer with a corresponding first coloring depth and to color the second thickness (T2) of said aluminum oxide layer with a corresponding second coloring depth greater than the first depth.
A method of removing sodium from a collection of sodium-laden resin beads comprising the steps of (a) providing the collection of sodium-laden resin beads, wherein the resin beads comprise one or more vinyl polymers having quaternary ammonium groups; wherein no cation exchange resin is present in the collection of resin beads; wherein 90 mole % or more of the quaternary ammonium groups are each associated with a hydroxide anion; wherein sodium is present in an amount of more than 500 ppb by weight, based on the weight of the collection of sodium-laden resin beads, and (b) bringing the collection of sodium-laden resin beads into contact with aqueous ammonium hydroxide to form a mixture (b). (a) providing the collection of sodium-laden resin beads, wherein the resin beads comprise one or more vinyl polymers having quaternary ammonium groups; wherein no cation exchange resin is present in the collection of resin beads; wherein 90 mole % or more of the quaternary ammonium groups are each associated with a hydroxide anion; wherein sodium is present in an amount of more than 500 ppb by weight, based on the weight of the collection of sodium-laden resin beads, and wherein the resin beads comprise one or more vinyl polymers having quaternary ammonium groups; wherein no cation exchange resin is present in the collection of resin beads; wherein 90 mole % or more of the quaternary ammonium groups are each associated with a hydroxide anion; wherein sodium is present in an amount of more than 500 ppb by weight, based on the weight of the collection of sodium-laden resin beads, and (b) bringing the collection of sodium-laden resin beads into contact with aqueous ammonium hydroxide to form a mixture (b).
Upper link for a three-point power lift of an agricultural tractor, comprising a cylindrical connecting sleeve , opposing internal threads being configured in the open ends thereof, wherein a fastening element with an external thread corresponding to the internal thread is screwed into each of the two open ends , such that the length of the upper link may be varied by rotating the cylindrical connecting sleeve , wherein a first of the two fastening elements may be attached on the tractor side and a second of the two fastening elements has a coupling apparatus for producing a releasable connection to a coupling point on the attachment side, wherein a retaining bar is attached to the first fastening element , a bar portion with a locking region for receiving a retaining catch and running spaced apart along the cylindrical connecting sleeve being configured thereon, characterized in that a support element is attached to an open portion end , said support element encompassing the cylindrical connecting sleeve such that said connecting sleeve is borne so as to be rotationally displaceable therein.
A prepreg comprising: a urethane (meth)acrylate (A) that is a reaction product of a polyisocyanate compound (a1) comprising a polymethylene polyphenyl polyisocyanate (a1-1) as an essential component and another polyisocyanate (a1-2) with a hydroxyl group-containing compound (a2) comprising, as an essential component, a compound (a2-1) having a hydroxyl group and a (meth)acryloyl group and another polyol (a2-2); a polymerization initiator (B); and carbon fibers (C); wherein the prepreg is obtained by: step 1 in which the carbon fibers (C) are impregnated with a resin solution in which the polymethylene polyphenyl polyisocyanate (a1-1), the other polyisocyanate (a1-2), the compound (a2-1) having a hydroxyl group and a (meth)acryloyl group, the other polyol (a2-2), and the polymerization initiator (B) are admixed with one another, and rolled under pressure to obtain a sheet, and step 2 in which the sheet is allowed to stand at room temperature to 50°C to have a reaction between the isocyanate group of the polyisocyanate compound (a1) and the hydroxyl group of the hydroxyl group-containing compound (a2); and wherein the prepreg contains the carbon fibers (C) in a content of 40 to 70% by mass. a urethane (meth)acrylate (A) that is a reaction product of a polyisocyanate compound (a1) comprising a polymethylene polyphenyl polyisocyanate (a1-1) as an essential component and another polyisocyanate (a1-2) with a hydroxyl group-containing compound (a2) comprising, as an essential component, a compound (a2-1) having a hydroxyl group and a (meth)acryloyl group and another polyol (a2-2); a polymerization initiator (B); and carbon fibers (C); wherein the prepreg is obtained by: step 1 in which the carbon fibers (C) are impregnated with a resin solution in which the polymethylene polyphenyl polyisocyanate (a1-1), the other polyisocyanate (a1-2), the compound (a2-1) having a hydroxyl group and a (meth)acryloyl group, the other polyol (a2-2), and the polymerization initiator (B) are admixed with one another, and rolled under pressure to obtain a sheet, and step 2 in which the sheet is allowed to stand at room temperature to 50°C to have a reaction between the isocyanate group of the polyisocyanate compound (a1) and the hydroxyl group of the hydroxyl group-containing compound (a2); and step 1 in which the carbon fibers (C) are impregnated with a resin solution in which the polymethylene polyphenyl polyisocyanate (a1-1), the other polyisocyanate (a1-2), the compound (a2-1) having a hydroxyl group and a (meth)acryloyl group, the other polyol (a2-2), and the polymerization initiator (B) are admixed with one another, and rolled under pressure to obtain a sheet, and step 2 in which the sheet is allowed to stand at room temperature to 50°C to have a reaction between the isocyanate group of the polyisocyanate compound (a1) and the hydroxyl group of the hydroxyl group-containing compound (a2); and wherein the prepreg contains the carbon fibers (C) in a content of 40 to 70% by mass.
A turbofan engine comprising: a fan rotatable about an axis (C) within a case ; a first acoustic treatment lining a first portion of the case upstream of the fan ; and a second acoustic treatment lining a second portion of the case downstream of the fan , wherein the second acoustic treatment is a single degree of freedom acoustic treatment, and wherein the first acoustic treatment has a different noise-attenuating characteristic relative to the second acoustic treatment , characterized in that the first acoustic treatment is a double degree of freedom acoustic treatment. a fan rotatable about an axis (C) within a case ; a first acoustic treatment lining a first portion of the case upstream of the fan ; and a second acoustic treatment lining a second portion of the case downstream of the fan , wherein the second acoustic treatment is a single degree of freedom acoustic treatment, and wherein the first acoustic treatment has a different noise-attenuating characteristic relative to the second acoustic treatment , characterized in that the first acoustic treatment is a double degree of freedom acoustic treatment.
A method of producing an isoprenoid compound comprising: 1) culturing an isoprenoid compound-forming microorganism in the presence of a growth promoting agent at a sufficient concentration to grow the isoprenoid compound-forming microorganism; 2) decreasing the sufficient concentration of the growth promoting agent to induce formation of the isoprenoid compound by the isoprenoid compound-forming microorganism; and 3) culturing the isoprenoid compound-forming microorganism to form the isoprenoid compound, wherein the isoprenoid compound-forming microorganism has an ability to form the isoprenoid compound depending on a promoter which is inversely dependent on the growth promoting agent, and wherein the isoprenoid compound-forming microorganism contains a gene encoding an isoprenoid compound-synthetic enzyme, wherein the gene is under the control of the promoter. 1) culturing an isoprenoid compound-forming microorganism in the presence of a growth promoting agent at a sufficient concentration to grow the isoprenoid compound-forming microorganism; 2) decreasing the sufficient concentration of the growth promoting agent to induce formation of the isoprenoid compound by the isoprenoid compound-forming microorganism; and 3) culturing the isoprenoid compound-forming microorganism to form the isoprenoid compound, wherein the isoprenoid compound-forming microorganism has an ability to form the isoprenoid compound depending on a promoter which is inversely dependent on the growth promoting agent, and wherein the isoprenoid compound-forming microorganism contains a gene encoding an isoprenoid compound-synthetic enzyme, wherein the gene is under the control of the promoter.