mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing molded foam articles that molds molded foam articles continuously, characterized in that the method comprises continuously repeating step 1, step 2, step 3 and step 4 described below in this order, wherein step 1 comprises melting a resin composition that includes a liquid crystal polyester, wherein the amount of the liquid crystal polyester, relative to the total mass of the resin composition, is greater than 30% by mass but not more than 100% by mass, step 2 comprises introducing, with an introduction device, a supercritical fluid that is unreactive, in a supercritical state, with the liquid crystal polyester, and is a gas at normal temperature and normal pressure, into the resin composition in an amount of at least 0.1 parts by mass but not more than 0.3 parts by mass per 100 parts by mass of the liquid crystal polyester, and then melt-kneading a resultant mixture, step 3 comprises injecting the melt-kneaded resin composition containing the supercritical fluid into a mold, and step 4 comprises conducting foaming by lowering at least one of a pressure and a temperature of the supercritical fluid contained in the resin composition to a value below a critical point of the supercritical fluid, and the method further comprises measuring an amount introduced of the supercritical fluid, and performing feedback control of the amount introduced of the supercritical fluid based on a measurement result; and the liquid crystal polyester has a melt tension at a temperature 20°C higher than a flow start temperature of at least 5 mN but not more than 100 mN, wherein the melt tension is measured in accordance with the description. step 1 comprises melting a resin composition that includes a liquid crystal polyester, wherein the amount of the liquid crystal polyester, relative to the total mass of the resin composition, is greater than 30% by mass but not more than 100% by mass, step 2 comprises introducing, with an introduction device, a supercritical fluid that is unreactive, in a supercritical state, with the liquid crystal polyester, and is a gas at normal temperature and normal pressure, into the resin composition in an amount of at least 0.1 parts by mass but not more than 0.3 parts by mass per 100 parts by mass of the liquid crystal polyester, and then melt-kneading a resultant mixture, step 3 comprises injecting the melt-kneaded resin composition containing the supercritical fluid into a mold, and step 4 comprises conducting foaming by lowering at least one of a pressure and a temperature of the supercritical fluid contained in the resin composition to a value below a critical point of the supercritical fluid, and the method further comprises measuring an amount introduced of the supercritical fluid, and performing feedback control of the amount introduced of the supercritical fluid based on a measurement result; and the liquid crystal polyester has a melt tension at a temperature 20°C higher than a flow start temperature of at least 5 mN but not more than 100 mN, wherein the melt tension is measured in accordance with the description.
Exterior mirror device for a vehicle, in particular a motor vehicle, having a mirror base that can be fastened to the vehicle and having a mirror head mounted on the mirror base so as to be pivotable about a pivot axis , an elastically deformable sealing element being arranged between the mirror base and the mirror head , which sealing element has two sealing arms when viewed in cross section, a first sealing arm sealingly abutting the mirror head and a second sealing arm sealingly abutting the mirror base , characterized in that the sealing arms extend opposite one another at a distance from one another, and in that at least one of the sealing arms has a depression which faces the other of the sealing arms and into which the other sealing arm can deflect at least in regions, the mirror head and the mirror base each having an outer housing part , and in that the sealing element is fastened to a housing part of the mirror base arranged in the mirror base and designed as a carrier element or structural component.
Fastening device for fastening a mechanical element with a support structure , in particular for fastening a cabin fitting element to a frame of an aircraft, the fastening device comprising: an enclosure , which is mountable to the support structure ; a locator bush , which is housed in the enclosure , wherein the locator bush is slidable along a longitudinal axis (X) of the fastening device in relation to the enclosure in an unlocked position of the fastening device ; a retaining element , which is positioned at least sectionwise around the longitudinal axis (X) in the enclosure and mechanically coupled to the locator bush ; and a locking bolt , which has a bolt head for mounting the mechanical element between the bolt head and the enclosure , wherein the locking bolt is configured to be slidable into the locator bush , and wherein the locking bolt has a recess , which is located on at least a section of the shell surface of the locking bolt and configured to be positively-locking connectable with the retaining element . an enclosure , which is mountable to the support structure ; a locator bush , which is housed in the enclosure , wherein the locator bush is slidable along a longitudinal axis (X) of the fastening device in relation to the enclosure in an unlocked position of the fastening device ; a retaining element , which is positioned at least sectionwise around the longitudinal axis (X) in the enclosure and mechanically coupled to the locator bush ; and a locking bolt , which has a bolt head for mounting the mechanical element between the bolt head and the enclosure , wherein the locking bolt is configured to be slidable into the locator bush , and wherein the locking bolt has a recess , which is located on at least a section of the shell surface of the locking bolt and configured to be positively-locking connectable with the retaining element .
An endoscope electrically coupled to an image display and configured for use with an elongated tool , the endoscope comprising: an elongated shaft having a shaft assembly located at a proximal end of the elongated shaft , an image sensor (128; 555) and a lens facing distally at a distal end of the elongated shaft ; a handle coupled to the shaft assembly , where the shaft assembly is rotatable in the handle ; a working channel (170; 564) within the elongated shaft and extending to a distal segment adjacent to the distal end of the elongated shaft , wherein advancing the elongated tool out of the working channel causes the side portions of the elongated shaft at the distal segment to flex outwardly; a first accelerometer coupled to the elongated shaft such that rotation of the elongated shaft rotates the first accelerometer ; wherein the first accelerometer is configured to provide signals to determine rotation of the image sensor (128; 555) relative to a longitudinal axis of the elongated shaft , wherein the signals permit rotation of an image on the image display; a support sleeve located about a portion of the distal segment, wherein the support sleeve urges the side portions of the elongated shaft inward upon removal of the elongated tool ; and a lower guide surface coupled by a flexible element to a working channel sleeve to provide a sliding interface against which the elongated tool can advance through the distal segment without contacting the support sleeve . an elongated shaft having a shaft assembly located at a proximal end of the elongated shaft , an image sensor (128; 555) and a lens facing distally at a distal end of the elongated shaft ; a handle coupled to the shaft assembly , where the shaft assembly is rotatable in the handle ; a working channel (170; 564) within the elongated shaft and extending to a distal segment adjacent to the distal end of the elongated shaft , wherein advancing the elongated tool out of the working channel causes the side portions of the elongated shaft at the distal segment to flex outwardly; a first accelerometer coupled to the elongated shaft such that rotation of the elongated shaft rotates the first accelerometer ; wherein the first accelerometer is configured to provide signals to determine rotation of the image sensor (128; 555) relative to a longitudinal axis of the elongated shaft , wherein the signals permit rotation of an image on the image display; a support sleeve located about a portion of the distal segment, wherein the support sleeve urges the side portions of the elongated shaft inward upon removal of the elongated tool ; and a lower guide surface coupled by a flexible element to a working channel sleeve to provide a sliding interface against which the elongated tool can advance through the distal segment without contacting the support sleeve .
A flexible substrate, comprising: a base substrate ; wherein the base substrate comprises: a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas , wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; wherein in each sub-pixel area , a pixel circuit , an isolation structure , and a light-emitting functional layer covering the pixel circuit and the isolation structure are provided; wherein the isolation structure has a hollow pattern at a junction of a sub-pixel area and a connection area ; each of the connection areas is provided with a signal line therein, wherein the signal line is electrically connected with the pixel circuit through the hollow pattern ; and characterised in that the isolation structure surrounds the pixel circuit , and has an undercut that interrupts the light-emitting functional layer . wherein the base substrate comprises: a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas , wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; a plurality of sub-pixel areas arranged in an array; connection areas between the sub-pixel areas , wherein each of the connection areas connects adjacent sub-pixel areas; and hollow areas among the sub-pixel areas and the connection area; wherein in each sub-pixel area , a pixel circuit , an isolation structure , and a light-emitting functional layer covering the pixel circuit and the isolation structure are provided; wherein the isolation structure has a hollow pattern at a junction of a sub-pixel area and a connection area ; each of the connection areas is provided with a signal line therein, wherein the signal line is electrically connected with the pixel circuit through the hollow pattern ; and characterised in that the isolation structure surrounds the pixel circuit , and has an undercut that interrupts the light-emitting functional layer .
Insert element for a reusable container , in particular for pizzas, comprising an insert base , configured to serve as a support surface for a foodstuff, in particular a pizza, and at least one removal element , wherein the insert element is configured to be inserted into a lower reusable container and wherein the insert element has at least one delimiting element , which has at least two different configurations and in one configuration is configured to delimit the support surface on the insert base and in another configuration is configured not to delimit the support surface on the insert base , characterized in that the delimiting element is formed from a first portion of the insert base and a second portion of the removal element . an insert base , configured to serve as a support surface for a foodstuff, in particular a pizza, and at least one removal element , wherein the insert element is configured to be inserted into a lower reusable container and wherein the insert element has at least one delimiting element , which has at least two different configurations and in one configuration is configured to delimit the support surface on the insert base and in another configuration is configured not to delimit the support surface on the insert base , characterized in that the delimiting element is formed from a first portion of the insert base and a second portion of the removal element .
Building façade , comprising - a load-bearing external building wall , - an exterior façade extending at a distance from the external building wall and constructed by a number of façade panels (3a, 3b, ..., 3n), - an anchoring system for fastening at least one of the façade panels (3a, 3b, ....) to the external building wall , wherein the anchoring system comprises a first and a second support component, wherein the first support component is connected on the one hand to a façade panel and on the other hand to the second support component and the second support component is also connected to the external building wall , wherein the connection between the first and second support component enables a relative angular alignment and fixation of the two support components to one another, characterized in that the at least one façade panel (3a, 3b, ...) has a grid-shaped reinforcement encased in concrete, preferably cast in concrete, wherein an alignment lug projecting beyond at least one boundary edge of an inner surface of the at least one façade panel (3a, 3b, ...) is provided, which engages in a receptacle arranged on a façade panel adjacent to this façade panel , wherein the receptacle is arranged in the installation position on an inner surface of the adjacent façade panel facing in the direction of the external building wall . - a load-bearing external building wall , - an exterior façade extending at a distance from the external building wall and constructed by a number of façade panels (3a, 3b, ..., 3n), - an anchoring system for fastening at least one of the façade panels (3a, 3b, ....) to the external building wall , wherein the anchoring system comprises a first and a second support component, wherein the first support component is connected on the one hand to a façade panel and on the other hand to the second support component and the second support component is also connected to the external building wall , wherein the connection between the first and second support component enables a relative angular alignment and fixation of the two support components to one another, characterized in that the at least one façade panel (3a, 3b, ...) has a grid-shaped reinforcement encased in concrete, preferably cast in concrete, wherein an alignment lug projecting beyond at least one boundary edge of an inner surface of the at least one façade panel (3a, 3b, ...) is provided, which engages in a receptacle arranged on a façade panel adjacent to this façade panel , wherein the receptacle is arranged in the installation position on an inner surface of the adjacent façade panel facing in the direction of the external building wall .
A media roll holder assembly for a roll (R1) that is detachably supported in a printing system , the assembly comprising: - a rotational drive comprising a roll engaging element configured for fittingly engaging and driving a drive engaging element of a roller (R1); - a first guide surface configured to support and direct the roller (R1) in a loading direction (X); characterized in that the assembly further comprises: - a second guide surface at least partially extending at an angle with respect to the first guide surface , such that movement of the roller (R1) over the first guide surface brings the drive engaging element in contact with the second guide surface , wherein the second guide surface directs the drive engaging element into a predetermined orientation, which orientation aligns the drive engaging element with the roll engaging element in a loading orientation, such that further movement of the roller (R1) in the loading direction (X) inserts the drive engaging element into the roll engaging element . - a rotational drive comprising a roll engaging element configured for fittingly engaging and driving a drive engaging element of a roller (R1); - a first guide surface configured to support and direct the roller (R1) in a loading direction (X); - a second guide surface at least partially extending at an angle with respect to the first guide surface , such that movement of the roller (R1) over the first guide surface brings the drive engaging element in contact with the second guide surface , wherein the second guide surface directs the drive engaging element into a predetermined orientation, which orientation aligns the drive engaging element with the roll engaging element in a loading orientation, such that further movement of the roller (R1) in the loading direction (X) inserts the drive engaging element into the roll engaging element .
A neck support comprising a body connection that can be attached to a person's upper body, a headrest and a holding device , wherein the holding device is arranged on the body connection and wherein the headrest is arranged on the holding device , characterized in that the headrest has two legs which are elastically bendable and which are connected to one another by a plurality of cross struts . a body connection that can be attached to a person's upper body, a headrest and a holding device , wherein the holding device is arranged on the body connection and wherein the headrest is arranged on the holding device , characterized in that the headrest has two legs which are elastically bendable and which are connected to one another by a plurality of cross struts .
Assembly blocks comprising: a first block configured to have a shape of a panel and having at least one edge provided with a receiving part ; and a second block configured to have a shape of a panel and having at least one edge to be received in the receiving part of the first block ; wherein the first block comprises a first click coupling part configured to protrude or to be recessed on the receiving part; wherein the second block comprises a second click coupling part formed at a portion of the second block received in the receiving part and configured to be sliding-coupled or insert-coupled to the first click coupling part ; wherein the second click coupling part comprises: a click coupling groove formed at at least one edge of the second block , the click coupling groove having smaller thickness than a body part at the side surface of the edge of the first block and being formed to be recessed, and a pair of coupling blades positioned at both sides of the click coupling groove ; wherein click inserting projections are formed respectively to protrude on facing surfaces of the coupling blades ; characterized in that a click inserting groove recessed to receive the click inserting projection and an inserting projection positioned away from the click inserting groove are formed on an outer surface of the coupling blades . a first block configured to have a shape of a panel and having at least one edge provided with a receiving part ; and a second block configured to have a shape of a panel and having at least one edge to be received in the receiving part of the first block ; wherein the first block comprises a first click coupling part configured to protrude or to be recessed on the receiving part; wherein the second block comprises a second click coupling part formed at a portion of the second block received in the receiving part and configured to be sliding-coupled or insert-coupled to the first click coupling part ; wherein the second click coupling part comprises: a click coupling groove formed at at least one edge of the second block , the click coupling groove having smaller thickness than a body part at the side surface of the edge of the first block and being formed to be recessed, and a pair of coupling blades positioned at both sides of the click coupling groove ; wherein click inserting projections are formed respectively to protrude on facing surfaces of the coupling blades ; characterized in that a click inserting groove recessed to receive the click inserting projection and an inserting projection positioned away from the click inserting groove are formed on an outer surface of the coupling blades .
A method of generating a set of values for respective ones of a set of parameters used in determining rotor blade profiles for a corotating coaxial rotor system, the method comprising: establishing a ratio of respective desired thrusts of an upper rotor and a lower rotor of the corotating coaxial rotor system based on a desired performance of the corotating coaxial rotor system; and determining the set of values of the set of parameters from the desired thrusts ratio based on an equal rotation speed condition between the upper rotor and the lower rotor of the corotating coaxial rotor system, wherein the set of parameters includes torques of the upper rotor and the lower rotor. establishing a ratio of respective desired thrusts of an upper rotor and a lower rotor of the corotating coaxial rotor system based on a desired performance of the corotating coaxial rotor system; and determining the set of values of the set of parameters from the desired thrusts ratio based on an equal rotation speed condition between the upper rotor and the lower rotor of the corotating coaxial rotor system, wherein the set of parameters includes torques of the upper rotor and the lower rotor.
A combustion chamber structure , particularly for a rocket engine, comprising: - a hot gas wall that surrounds a combustion chamber and has a plurality of first coolant channels and a plurality of second coolant channels , the plurality of first and second coolant channels extending from a first longitudinal end of the hot gas wall to a second longitudinal end of the hot gas wall opposite to the first longitudinal end , - a first manifold forming a first coolant chamber and a second manifold forming a second coolant chamber being fluidly separated from the first coolant chamber , the first and second manifolds being provided at the first longitudinal end of the hot gas wall and extending in a circumferential direction of the hot gas wall so as to surround the combustion chamber in the circumferential direction, - a first cooling circuit comprising the first manifold and the plurality of first coolant channels , and - a second cooling circuit comprising the second manifold and the plurality of second coolant channels , wherein the first coolant chamber is fluidly connected to each of the plurality of first coolant channels for distributing a first coolant to the plurality of first coolant channels and the second coolant chamber is fluidly connected to each of the plurality of second coolant channels for distributing a second coolant to the plurality of second coolant channels , and the first cooling circuit and the second cooling circuit are fluidly isolated from each other. - a hot gas wall that surrounds a combustion chamber and has a plurality of first coolant channels and a plurality of second coolant channels , the plurality of first and second coolant channels extending from a first longitudinal end of the hot gas wall to a second longitudinal end of the hot gas wall opposite to the first longitudinal end , - a first manifold forming a first coolant chamber and a second manifold forming a second coolant chamber being fluidly separated from the first coolant chamber , the first and second manifolds being provided at the first longitudinal end of the hot gas wall and extending in a circumferential direction of the hot gas wall so as to surround the combustion chamber in the circumferential direction, - a first cooling circuit comprising the first manifold and the plurality of first coolant channels , and - a second cooling circuit comprising the second manifold and the plurality of second coolant channels ,