mhurhangee/patent-ind-claim-en huggingface dataset:
Safety device for a striking-work of a horological mechanism for striking the integer part of a number indicated by an indicator on a dial; said safety device comprising at least: - a first wheel ; said at least one first wheel being configured to be meshed with and movably mounted on a shaft ; said at least one first wheel comprising at least one abutment member ; - a second wheel ; said at least one second wheel being movably mounted on said shaft and configured to be driven by said at least one abutment member when said at least one first wheel is meshed; said at least one second wheel including at least one first portion corresponding to the integer part of a first number, at least one second portion corresponding to the integer part of a second number and at least one intermediate portion disposed between said at least one first portion and said at least one second portion ; - an actuating member ; said safety device being characterised in that said at least one actuating member is configured to act on said at least one intermediate portion so as to free said at least one second wheel from said at least one abutment member and preferably strike the integer part of said second number. - a first wheel ; said at least one first wheel being configured to be meshed with and movably mounted on a shaft ; said at least one first wheel comprising at least one abutment member ; - a second wheel ; said at least one second wheel being movably mounted on said shaft and configured to be driven by said at least one abutment member when said at least one first wheel is meshed; said at least one second wheel including at least one first portion corresponding to the integer part of a first number, at least one second portion corresponding to the integer part of a second number and at least one intermediate portion disposed between said at least one first portion and said at least one second portion ; - an actuating member ;
Gyroscopic sensor comprising: - a sensitive element having a hemispherical or bell shape; the sensitive element being designed to vibrate; - an electrode carrier capable of carrying excitation/detection electrodes for exciting the sensitive element and for detecting the vibration of the sensitive element ; and - elements for supporting the electrode carrier ; characterized in that the supporting elements comprise a base made of a material having a density of less than 5 kg/dm 3 , and the square root of the ratio of Young's modulus divided by said density is greater than 9 GPa 1/2 .dm 3/2 .kg -1/2 . - a sensitive element having a hemispherical or bell shape; the sensitive element being designed to vibrate; - an electrode carrier capable of carrying excitation/detection electrodes for exciting the sensitive element and for detecting the vibration of the sensitive element ; and - elements for supporting the electrode carrier ;
An automated method for identifying a clot or a leak in an analyzer (200; 400) including multiple liquid chromatography (LC) streams, the method comprising: obtaining an indication of a trigger event for a clot or leak detection routine; starting a clot or leak detecting routine in response to the trigger event, wherein the clot or leak detecting routine is designed to identify a location of the clot or leak out multiple possible positions by using one or more sensors of the analyzer; and providing information regarding the identified location of the clot or leak for further processing, wherein the clot or leak detecting routine includes isolating a first part (7a; 40a) of a fluid path of the analyzer (200; 400) characterized in that the clot or leak detection routine further includes sequentially increasing the isolated part by adding further parts (7b; 40b-c) of the fluid path and wherein the clot or leak detecting routine includes switching one or more valves (3c; 3d; 3h; 3m; 3p; 3q) of the analyzer to a closed position to isolate a particular part of the fluid part of the analyzer, wherein one of the one or more valves is a rotary valve and switching the valve to a closed position includes turning the rotary valve to a position between a first position in which a first input port is connected to a first output port and a second position in which the first input port is connected to a second output port to block a particular part including the first input port. obtaining an indication of a trigger event for a clot or leak detection routine; starting a clot or leak detecting routine in response to the trigger event, wherein the clot or leak detecting routine is designed to identify a location of the clot or leak out multiple possible positions by using one or more sensors of the analyzer; and providing information regarding the identified location of the clot or leak for further processing, wherein the clot or leak detecting routine includes isolating a first part (7a; 40a) of a fluid path of the analyzer (200; 400) characterized in that the clot or leak detection routine further includes sequentially increasing the isolated part by adding further parts (7b; 40b-c) of the fluid path and wherein the clot or leak detecting routine includes switching one or more valves (3c; 3d; 3h; 3m; 3p; 3q) of the analyzer to a closed position to isolate a particular part of the fluid part of the analyzer, wherein one of the one or more valves is a rotary valve and switching the valve to a closed position includes turning the rotary valve to a position between a first position in which a first input port is connected to a first output port and a second position in which the first input port is connected to a second output port to block a particular part including the first input port.
A composition comprising a strain of Lactobacilli having an elevated bile salt hydrolase activity and a cholesterol modifying agent; wherein the strain is Lactobacillus plantarum 2830 (ECGC 13110402).
Garment for use at high temperatures, such as, for example, a fire-fighting suit, comprising an outer fabric of heat-resistant material which is provided over its surface with a ceramic coating, characterised in that the ceramic coating covers the fabric to an extent of 20%, in particular 30%, to 40%, in particular about 35%, the coating partially covering the fabric being applied at 20 to 30 g/m 2 .
Sample inspection apparatus comprising: a source of electromagnetic radiation; a beam forming collimator for producing a substantially conical shell of radiation, a first radiation detector arranged to receive diffracted radiation after incidence of the conical shell beam upon a sample to be inspected; and characterised by : a coded aperture provided at a detection surface of the first radiation detector , said aperture being provided at a centre point of the detection surface of the first radiation detector ; and a range detector which is arranged to collect radiation transmitted through the coded aperture and configured to determine a distance between the sample and the detection surface of the first radiation detector according to a diameter of a ring of radiation formed on the detection surface of the range detector . a source of electromagnetic radiation; a beam forming collimator for producing a substantially conical shell of radiation, a first radiation detector arranged to receive diffracted radiation after incidence of the conical shell beam upon a sample to be inspected; and characterised by : a coded aperture provided at a detection surface of the first radiation detector , said aperture being provided at a centre point of the detection surface of the first radiation detector ; and a range detector which is arranged to collect radiation transmitted through the coded aperture and configured to determine a distance between the sample and the detection surface of the first radiation detector according to a diameter of a ring of radiation formed on the detection surface of the range detector . a coded aperture provided at a detection surface of the first radiation detector , said aperture being provided at a centre point of the detection surface of the first radiation detector ; and a range detector which is arranged to collect radiation transmitted through the coded aperture and configured to determine a distance between the sample and the detection surface of the first radiation detector according to a diameter of a ring of radiation formed on the detection surface of the range detector .
A method of operating a DNS answer augmentation system comprising: parsing (110, 210, 310; 402) a question from a DNS packet; generating a dynamically-generated answer to the question , and returning the dynamically-generated answer to a source of the question; wherein the question comprises any of a reverse DNS lookup and a forward DNS lookup , and generating the dynamically-generated answer comprises, for the case of the reverse DNS lookup, using at least a portion of an IP address in the question to generate a domain name that includes a domain for which an authoritative DNS server is authoritative, and for the case of the forward DNS lookup, using at least a portion of a domain name in the question to generate an IP address, the method characterized in that during a period of time in which load on the authoritative DNS server is high, not passing the DNS packet to the authoritative DNS server, wherein the DNS packet is passed to the authoritative DNS server at other periods of time, the generation of the dynamic generated-answer being in response to not passing the DNS packet. parsing (110, 210, 310; 402) a question from a DNS packet; generating a dynamically-generated answer to the question , and returning the dynamically-generated answer to a source of the question; wherein the question comprises any of a reverse DNS lookup and a forward DNS lookup , and generating the dynamically-generated answer comprises, for the case of the reverse DNS lookup, using at least a portion of an IP address in the question to generate a domain name that includes a domain for which an authoritative DNS server is authoritative, and for the case of the forward DNS lookup, using at least a portion of a domain name in the question to generate an IP address, the method characterized in that during a period of time in which load on the authoritative DNS server is high, not passing the DNS packet to the authoritative DNS server, wherein the DNS packet is passed to the authoritative DNS server at other periods of time, the generation of the dynamic generated-answer being in response to not passing the DNS packet.
A free standing film, consisting of: 30 to 75 wt% of a partially hydrolyzed polyvinyl acetate; 10 to 15 wt% of a poly(ethylene oxide); 1 to 35 wt% of a polyalkylene glycol; 0.5 to 25 wt% of a plasticizer; 0 to 10 wt% of a poly(isobutylene-co-maleic anhydride) copolymer, wherein the poly(isobutylene-co-maleic anhydride) copolymer is at least partially neutralized; and 0 to 10 wt% of an optional additive. 30 to 75 wt% of a partially hydrolyzed polyvinyl acetate; 10 to 15 wt% of a poly(ethylene oxide); 1 to 35 wt% of a polyalkylene glycol; 0.5 to 25 wt% of a plasticizer; 0 to 10 wt% of a poly(isobutylene-co-maleic anhydride) copolymer, wherein the poly(isobutylene-co-maleic anhydride) copolymer is at least partially neutralized; and 0 to 10 wt% of an optional additive.
A fluid pressure reduction device for use in a fluid flow control device, the fluid pressure reduction device comprising: a unitary body having an inner wall and an outer wall spaced radially outward of the inner wall , the unitary body extending along a longitudinal axis , wherein the unitary body has a length defined between a top end of the unitary body and a bottom end of the unitary body opposite the top end ; and a plurality of flow paths defined between the inner wall and the outer wall of the unitary body , each of the flow paths comprising a single inlet aperture formed in and through the inner wall and oriented along a first axis that is substantially perpendicular to the longitudinal axis , a single outlet aperture formed in and through the outer wall and oriented along a second axis that is substantially perpendicular to the longitudinal axis , and a single intermediate section extending between the single inlet aperture and the single corresponding outlet aperture , characterised in that at least a portion of the single intermediate section extends in a direction that is substantially parallel to the longitudinal axis and travels at least a majority of the length of the unitary body . a unitary body having an inner wall and an outer wall spaced radially outward of the inner wall , the unitary body extending along a longitudinal axis , wherein the unitary body has a length defined between a top end of the unitary body and a bottom end of the unitary body opposite the top end ; and a plurality of flow paths defined between the inner wall and the outer wall of the unitary body , each of the flow paths comprising a single inlet aperture formed in and through the inner wall and oriented along a first axis that is substantially perpendicular to the longitudinal axis , a single outlet aperture formed in and through the outer wall and oriented along a second axis that is substantially perpendicular to the longitudinal axis , and a single intermediate section extending between the single inlet aperture and the single corresponding outlet aperture , characterised in that at least a portion of the single intermediate section extends in a direction that is substantially parallel to the longitudinal axis and travels at least a majority of the length of the unitary body .
A system information transmission method, characterized by comprising: receiving (S310), by a first network node, at least one type of system information, SI, from a second network node, wherein the at least one type of SI comprises first SI; receiving (S320), by the first network node, a request message from a terminal device, wherein the request message is used to request the first SI; and sending (S330), by the first network node, the first SI to the terminal device based on the request message and the at least one type of SI, wherein the first and second network nodes are, respectively, a distributed unit and a centralized unit of a centralized unit-distributed unit split architecture; and wherein the request message is an RRC message, and the receiving (S320), by the first network node, the request message from the terminal device, comprises: receiving, by the first network node, the request message from the terminal device through a first channel; and determining, by the first network node based on the first channel and a preset mapping relationship, that the request message is used to request the first SI, wherein the mapping relationship comprises a correspondence between the first channel and the first SI. receiving (S310), by a first network node, at least one type of system information, SI, from a second network node, wherein the at least one type of SI comprises first SI; receiving (S320), by the first network node, a request message from a terminal device, wherein the request message is used to request the first SI; and sending (S330), by the first network node, the first SI to the terminal device based on the request message and the at least one type of SI, wherein the first and second network nodes are, respectively, a distributed unit and a centralized unit of a centralized unit-distributed unit split architecture; and wherein the request message is an RRC message, and the receiving (S320), by the first network node, the request message from the terminal device, comprises: receiving, by the first network node, the request message from the terminal device through a first channel; and determining, by the first network node based on the first channel and a preset mapping relationship, that the request message is used to request the first SI, wherein the mapping relationship comprises a correspondence between the first channel and the first SI.
A triboelectric nanogenerator that collects mechanical energy of liquid, comprising: an insulating substrate ; an electricity generation component that consists of a first electrode layer (21; 210) and a second electrode layer (22; 220), wherein the first electrode layer (21; 210) and the second electrode layer (22; 220) are separately disposed on the substrate and electrically connected to each other; and a friction layer that covers the electricity generation component such that the first electrode layer (21; 210) and the second electrode layer (22; 220) of the electricity generation component are isolated from the liquid, characterized in that , the triboelectric nanogenerator further comprises the liquid; and the liquid frictionates with the friction layer when the liquid fluctuates or flows, such that a surface of the friction layer in contact with the liquid carries charges, and wherein the charges on the surface of the friction layer corresponding to the two electrode layers are sequentially shielded by ions in the liquid as the liquid fluctuates or flows, causing the electrostatic effects of the charges carried on the surface of the friction layer on the electrons in the first electrode layer (21; 210) different from those on the electrons in the second electrode layer (22; 220), which results in a flow of induced charges between the first electrode layer (21; 210) and the second electrode layer (22; 220). an insulating substrate ; an electricity generation component that consists of a first electrode layer (21; 210) and a second electrode layer (22; 220), wherein the first electrode layer (21; 210) and the second electrode layer (22; 220) are separately disposed on the substrate and electrically connected to each other; and a friction layer that covers the electricity generation component such that the first electrode layer (21; 210) and the second electrode layer (22; 220) of the electricity generation component are isolated from the liquid, characterized in that , the triboelectric nanogenerator further comprises the liquid; and the liquid frictionates with the friction layer when the liquid fluctuates or flows, such that a surface of the friction layer in contact with the liquid carries charges, and wherein the charges on the surface of the friction layer corresponding to the two electrode layers are sequentially shielded by ions in the liquid as the liquid fluctuates or flows, causing the electrostatic effects of the charges carried on the surface of the friction layer on the electrons in the first electrode layer (21; 210) different from those on the electrons in the second electrode layer (22; 220), which results in a flow of induced charges between the first electrode layer (21; 210) and the second electrode layer (22; 220).
Method for keeping liquid metals warm, in which a metallic melt is held in a container and is heated by burning a fuel with oxygen by means of a burner held in an immersion pipe introduced into the melt vertically or at an angle, characterized in that flue gases produced during the burning of the fuel in the burner are introduced into the melt through a flow opening of the immersion pipe .
A gadolinium-based compound represented by a following Chemical Formula 1: wherein in the Chemical Formula 1, A represents *-(CH 2 ) n -A 1 -*, n represents any integer from 0 to 5, A 1 represents *-COO-*, *-CO-*, *-NR 1 -*, *-CH 2 -*, *-CONH-*, or *-0-*, Linker represents *-L 1 -NHCO-L 2 -*, *-L 1 -O-R 2 -O-L 2 -*, *-L 1 -CH 2 -L 2 -*, *-L 1 -NR 3 -L 2 -*, or *-L 1 -COO-L 2 -* , each of L 1 and L 2 independently represents linear or branched (C1-C30)alkyl, each of R 1 and R 3 independently represents hydrogen or linear or branched (C1-C10)alkyl, R 2 represents linear or branched (C1-C20)alkyl, RB represents a following Chemical Formula 2: * indicates a connection site. wherein in the Chemical Formula 1, A represents *-(CH 2 ) n -A 1 -*, n represents any integer from 0 to 5, A 1 represents *-COO-*, *-CO-*, *-NR 1 -*, *-CH 2 -*, *-CONH-*, or *-0-*, Linker represents *-L 1 -NHCO-L 2 -*, *-L 1 -O-R 2 -O-L 2 -*, *-L 1 -CH 2 -L 2 -*, *-L 1 -NR 3 -L 2 -*, or *-L 1 -COO-L 2 -* , each of L 1 and L 2 independently represents linear or branched (C1-C30)alkyl, each of R 1 and R 3 independently represents hydrogen or linear or branched (C1-C10)alkyl, R 2 represents linear or branched (C1-C20)alkyl, RB represents a following Chemical Formula 2: * indicates a connection site.
A gear mechanism , comprising: a first shaft ; a second shaft disposed at an angle with the first shaft ; a first gear group including a plurality of first gears that transmit rotation of the first shaft to the second shaft ; and a second gear group including a plurality of second gears that transmit, to an output side, rotation of the second shaft transmitted from the first shaft , a first second gear being situated closest to the second shaft among the plurality of second gears , a last second gear being situated closest to the output side among the plurality of second gears , and a straight line (L1) that connects a rotation center of the first second gear and a rotation center of the last second gear , the straight line (L1) forming an angle with the first shaft when viewed in a direction along the second shaft , a first casing housing the first gear group; a second casing housing the second gear group and attached to the first casing ; characterized in that the gear mechanism further comprises an output unit casing housing an output unit that includes a third shaft serving as the output side, the output unit casing being attached to the second casing at a position adjacent to the first casing , the output unit casing having a wall portion extending in a radial direction of the third shaft and a cut surface (2c1) formed in the wall portion, and a thickness (M2c) of the wall portion decreasing only in a portion facing the first casing to form the cut surface (2c1). a first shaft ; a second shaft disposed at an angle with the first shaft ; a first gear group including a plurality of first gears that transmit rotation of the first shaft to the second shaft ; and a second gear group including a plurality of second gears that transmit, to an output side, rotation of the second shaft transmitted from the first shaft , a first second gear being situated closest to the second shaft among the plurality of second gears , a last second gear being situated closest to the output side among the plurality of second gears , and a straight line (L1) that connects a rotation center of the first second gear and a rotation center of the last second gear , the straight line (L1) forming an angle with the first shaft when viewed in a direction along the second shaft , a first casing housing the first gear group; a second casing housing the second gear group and attached to the first casing ; characterized in that the gear mechanism further comprises an output unit casing housing an output unit that includes a third shaft serving as the output side, the output unit casing being attached to the second casing at a position adjacent to the first casing , the output unit casing having a wall portion extending in a radial direction of the third shaft and a cut surface (2c1) formed in the wall portion, and a thickness (M2c) of the wall portion decreasing only in a portion facing the first casing to form the cut surface (2c1).
A process for preparing purified vegetable liquid oil, and the process is comprising contacting a vegetable liquid oil, which has not been subjected to a deodorization step, with an adsorbent comprising alumina oxide and wherein the adsorbent has a content of alumina oxide of not more than 9.5%, preferably not more than 9%, more preferably not more than 8.5% (wt%).