mhurhangee/patent-ind-claim-en huggingface dataset:
A component connection , with - a first component which has a through-hole, from the hole rim of which at least one clamping element protrudes towards a first side of the first component , - a second component which has a through-hole, from the hole rim of which at least one clamping element protrudes towards a first side of the second component , wherein - the two components bear against each other with their sides which face away from the first sides , and - with a connecting element having at least two spherical or sphere-like elements which extends through the two through-holes such that - the at least one clamping element of the first component bears against a first one of the at least two spherical or sphere-like elements , and - the at least one clamping element of the second component bears in clamping manner against a second one of the at least two spherical or sphere-like elements . - a first component which has a through-hole, from the hole rim of which at least one clamping element protrudes towards a first side of the first component , - a second component which has a through-hole, from the hole rim of which at least one clamping element protrudes towards a first side of the second component , wherein - the two components bear against each other with their sides which face away from the first sides , and - with a connecting element having at least two spherical or sphere-like elements which extends through the two through-holes such that - the at least one clamping element of the first component bears against a first one of the at least two spherical or sphere-like elements , and - the at least one clamping element of the second component bears in clamping manner against a second one of the at least two spherical or sphere-like elements . - the two components bear against each other with their sides which face away from the first sides , and - with a connecting element having at least two spherical or sphere-like elements which extends through the two through-holes such that - the at least one clamping element of the first component bears against a first one of the at least two spherical or sphere-like elements , and - the at least one clamping element of the second component bears in clamping manner against a second one of the at least two spherical or sphere-like elements .
A method of forming a protective coating, comprising the steps of (i) extracting a composition from a cuticle layer of plant matter of a first plant, the composition comprising cutin-derived monomers, oligomers, esters thereof, or combinations thereof, wherein the extraction method comprises: obtaining cutin from the cuticle layer of the first plant, adding the cutin to a solvent to form a mixture, the solvent having a boiling point at a first temperature at a pressure of one atmosphere, wherein the solvent comprises water, glycerol, methanol, ethanol, liquid CO 2 , or supercritical CO 2 ; and heating the mixture to a second temperature and second pressure, the second temperature being higher than the first temperature and the second pressure being higher than one atmosphere, thereby forming the composition comprising the cutin-derived monomers, oligomers, esters thereof, or combinations thereof; and (ii) disposing the composition on plant matter of a second plant different from the first plant, to form the protective coating over the plant matter of the second plant. (i) extracting a composition from a cuticle layer of plant matter of a first plant, the composition comprising cutin-derived monomers, oligomers, esters thereof, or combinations thereof, wherein the extraction method comprises: obtaining cutin from the cuticle layer of the first plant, adding the cutin to a solvent to form a mixture, the solvent having a boiling point at a first temperature at a pressure of one atmosphere, wherein the solvent comprises water, glycerol, methanol, ethanol, liquid CO 2 , or supercritical CO 2 ; and heating the mixture to a second temperature and second pressure, the second temperature being higher than the first temperature and the second pressure being higher than one atmosphere, thereby forming the composition comprising the cutin-derived monomers, oligomers, esters thereof, or combinations thereof; and obtaining cutin from the cuticle layer of the first plant, adding the cutin to a solvent to form a mixture, the solvent having a boiling point at a first temperature at a pressure of one atmosphere, wherein the solvent comprises water, glycerol, methanol, ethanol, liquid CO 2 , or supercritical CO 2 ; and heating the mixture to a second temperature and second pressure, the second temperature being higher than the first temperature and the second pressure being higher than one atmosphere, thereby forming the composition comprising the cutin-derived monomers, oligomers, esters thereof, or combinations thereof; and (ii) disposing the composition on plant matter of a second plant different from the first plant, to form the protective coating over the plant matter of the second plant.
A crystalline hydrochloride salt of a compound of formula: having an X-ray powder diffraction (XRPD) pattern comprising a characteristic peak at 13.7o 2θ ± 0.2° 2θ.
A system comprising: one or more processors ; and a kernel-level security agent comprising a situational model to track attributes or behaviors of one or more objects or processes of the system, wherein the kernel-level security agent is configured to be executed by the one or more processors to: observe events that occur on the system, filter the observed events using configurable filters, wherein at least one of the configurable filters is configured to query the situational model to determine attributes, patterns, or other descriptions of a process that is associated with an observed event being filtered, in order to determine when the event being filtered is interesting, update the situational model based at least in part on the filtered events, route the filtered events to one or more event consumers, and utilize the one or more event consumers to take action based at least on one of the filtered events. one or more processors ; and a kernel-level security agent comprising a situational model to track attributes or behaviors of one or more objects or processes of the system, wherein the kernel-level security agent is configured to be executed by the one or more processors to: observe events that occur on the system, filter the observed events using configurable filters, wherein at least one of the configurable filters is configured to query the situational model to determine attributes, patterns, or other descriptions of a process that is associated with an observed event being filtered, in order to determine when the event being filtered is interesting, update the situational model based at least in part on the filtered events, route the filtered events to one or more event consumers, and utilize the one or more event consumers to take action based at least on one of the filtered events. observe events that occur on the system, filter the observed events using configurable filters, wherein at least one of the configurable filters is configured to query the situational model to determine attributes, patterns, or other descriptions of a process that is associated with an observed event being filtered, in order to determine when the event being filtered is interesting, update the situational model based at least in part on the filtered events, route the filtered events to one or more event consumers, and utilize the one or more event consumers to take action based at least on one of the filtered events.
A tuning and mitigation system for mitigating a blast or impact event, said tuning and mitigation system comprising: a tuning layer assembly comprising an elastic layer and having a first acoustic impedance; and a dissipative layer assembly comprising a dissipative layer being made of a viscoelastic material having a critical damping frequency and having a second acoustic impedance lower than the first acoustic impedance, said dissipative layer being proximate to said elastic layer, wherein the elastic layer and the dissipative layer are collectively configured to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, the dissipative layer tuning with the elastic layer and vibrating with the elastic layer as a mass-spring system. a tuning layer assembly comprising an elastic layer and having a first acoustic impedance; and a dissipative layer assembly comprising a dissipative layer being made of a viscoelastic material having a critical damping frequency and having a second acoustic impedance lower than the first acoustic impedance, said dissipative layer being proximate to said elastic layer, wherein the elastic layer and the dissipative layer are collectively configured to tune stress waves resulting from the blast or impact to one or more specific tuned frequencies that match the critical damping frequency of the dissipative layer, the dissipative layer tuning with the elastic layer and vibrating with the elastic layer as a mass-spring system.
A computing device operated by a user of the computing device , said computing device comprising: an access control module configured to verify, using an access verification key , a request to access applications and data on the computing device by an authorized external access entity , where the authorized external access entity is a different entity than the user and is external to the computing device , and the access request verified using the access verification key is generated externally to the computing device ; an application authorization module configured to use an application verification key to verify a digitally signed request to authorize execution of an application ; a first partition coupled to the application authorization module for executing applications that can be accessed by the user in which only applications authorized via a cryptographic verification performed by the application authorization module can execute; a second partition for executing applications in which applications that execute can be accessed by the authorized external access entity and by the user; and coupled to the first and second partitions (310; 205, 210) and executing on the computing device , a set of protection modules configured to protect data used by applications authorized to execute in the first partition from access by applications executing in the second partition and to prevent the authorized external access entity from accessing protected data used by applications authorized to execute in the first partition . an access control module configured to verify, using an access verification key , a request to access applications and data on the computing device by an authorized external access entity , where the authorized external access entity is a different entity than the user and is external to the computing device , and the access request verified using the access verification key is generated externally to the computing device ; an application authorization module configured to use an application verification key to verify a digitally signed request to authorize execution of an application ; a first partition coupled to the application authorization module for executing applications that can be accessed by the user in which only applications authorized via a cryptographic verification performed by the application authorization module can execute; a second partition for executing applications in which applications that execute can be accessed by the authorized external access entity and by the user; and coupled to the first and second partitions (310; 205, 210) and executing on the computing device , a set of protection modules configured to protect data used by applications authorized to execute in the first partition from access by applications executing in the second partition and to prevent the authorized external access entity from accessing protected data used by applications authorized to execute in the first partition .
A computer-implemented method for a sequence triggering of a call for an elevator car of an elevator system, the elevator system comprising a first location device and a second location device , the method comprising: detecting , by the first location device , a first triggering signal outputted by a mobile terminal ; detecting , by the second location device , a second triggering signal outputted by the mobile terminal ; and automatically executing , by the elevator system, a second call for a second elevator car of the elevator system in response to the detection of the second triggering signal by the second location device subsequent to the detection of the first triggering signal by the first location device , characterised by automatically executing , by the elevator system, a first call for a first elevator car of the elevator system in response to the detection of the first triggering signal by the first location device , wherein the second call is one of a plurality of calls of a multi-segment elevator trip within the elevator system. detecting , by the first location device , a first triggering signal outputted by a mobile terminal ; detecting , by the second location device , a second triggering signal outputted by the mobile terminal ; and automatically executing , by the elevator system, a second call for a second elevator car of the elevator system in response to the detection of the second triggering signal by the second location device subsequent to the detection of the first triggering signal by the first location device , characterised by automatically executing , by the elevator system, a first call for a first elevator car of the elevator system in response to the detection of the first triggering signal by the first location device , wherein the second call is one of a plurality of calls of a multi-segment elevator trip within the elevator system.
A mill for crushing steel slag or bottom ash to separate metals and slag, which mill comprises a casing , a cover plate , a bottom plate and a crushing mechanism inside the casing by means of which crushing mechanism the steel slag and/or the bottom ash are crushed, and which crushing mechanism comprises an inner rotor and an outer rotor , and that the material to be crushed is arranged to be fed to the center area of the inner rotor , from where it is ejected by a centrifugal force to the outer rotor and further outwards through outlets , characterized by a lower rotor below the inner rotor and outer rotor , which lower rotor is arranged to receive its rotational motion from its own power source, and further characterized in that the lower rotor comprises a bottom plate which comprises openings for the crushed material to fall through the openings . characterized by a lower rotor below the inner rotor and outer rotor , which lower rotor is arranged to receive its rotational motion from its own power source, and further characterized in that the lower rotor comprises a bottom plate which comprises openings for the crushed material to fall through the openings .
Lid device for a waste collection container , in particular with a capacity of up to 10001, which is provided to close a filling opening of the waste collection container , wherein the lid device is designed in two parts and comprises two lid elements , each lid element (11; 12) having a lid element face (13; 14) which is delimited by three or more lid element edges, wherein one lid element edge is designed as a first lid element edge (15; 16) which, in the closed operating state of the lid device , faces a first lid element edge (16; 15) of another lid element, wherein the first lid element edges of adjacent lid elements in particular have a mutually corresponding course, wherein one lid element edge is designed as a second lid element edge (21; 27), which is opposite to the first lid element edge (15; 16), wherein, in addition the lid element face (13; 14) is delimited by a third lid element edge (24; 30), which connects the first lid element edge (15; 16) and the second lid element edge (21; 27), wherein each lid element comprises at least one fastening device (22, 23; 28, 29) which is provided to, in particular pivotally, attach the lid element (11; 12) to the waste collection container , in particular to a container body of the waste collection container , and wherein the second lid element edge (21; 27) is designed as a fastening edge, and that the at least one fastening device (22, 23; 28, 29) is arranged or designed on the fastening edge, characterized in, that the first lid element edge (15; 16) and the second lid element edge (21; 27), over the extension (26; 32) of the second lid element edge (21; 27) have different distances from one another, and that the distances, over the extension (26; 32) of the second lid element edge (21; 27), vary in every point.
A subsea electronics housing, comprising: a gas-filled internal volume at least partially defined by a housing wall ; one or more heat generating electronics modules (260-269) positioned within the volume; one or more heat sinks (220-229) in thermal communication with the one or more electronics modules (260-269); one or more spring mechanisms (240-249) arranged and configured to, when engaged, apply force against the one or more heat sinks (220-229) to hold the one or more heat sinks (220-229) in thermal communication with the housing wall ; and characterized by a spring engagement mechanism allowing installation or removal of the electronic modules (220-229) within or from the housing, the spring engagement mechanism configured to selectively engage at least one of the spring mechanisms (240-249) thereby causing it to apply force against one or more of the heat sinks (220-229) towards the housing wall and to selectively disengage the at least one of the spring mechanisms (240-249) thereby causing it to reduce force against the one or more of the heat sinks (220-229) towards the housing wall , wherein the spring engagement mechanism is initiated using an initiation force in a direction other than a direction of applied force against one or more of the heat sinks (220-229), the initiation force being applied to a central shaft with the direction being parallel to the central shaft and axis of the housing or in a rotational direction, and the direction of the applied force against the one or more heat sinks (220-229) is radial from the central axis toward the housing wall . a gas-filled internal volume at least partially defined by a housing wall ; one or more heat generating electronics modules (260-269) positioned within the volume; one or more heat sinks (220-229) in thermal communication with the one or more electronics modules (260-269); one or more spring mechanisms (240-249) arranged and configured to, when engaged, apply force against the one or more heat sinks (220-229) to hold the one or more heat sinks (220-229) in thermal communication with the housing wall ; and characterized by a spring engagement mechanism allowing installation or removal of the electronic modules (220-229) within or from the housing, the spring engagement mechanism configured to selectively engage at least one of the spring mechanisms (240-249) thereby causing it to apply force against one or more of the heat sinks (220-229) towards the housing wall and to selectively disengage the at least one of the spring mechanisms (240-249) thereby causing it to reduce force against the one or more of the heat sinks (220-229) towards the housing wall , wherein the spring engagement mechanism is initiated using an initiation force in a direction other than a direction of applied force against one or more of the heat sinks (220-229), the initiation force being applied to a central shaft with the direction being parallel to the central shaft and axis of the housing or in a rotational direction, and the direction of the applied force against the one or more heat sinks (220-229) is radial from the central axis toward the housing wall .
An antibacterial compound of formula I wherein X is selected from fluoro or bromo.
A cluster-tool assembly (330; 530) for abrasive flow machining of a plurality of airfoils (302; 502), comprising: an airfoil cluster (200, 252; 300; 406), the airfoil cluster (200, 252; 300; 406) including a supporting rail and the plurality of airfoils (302; 502) spaced about the supporting rail ; and characterised by a sacrificial tool unitarily formed with the airfoil cluster (200, 252; 300; 406), the sacrificial tool including a body and a plurality of prongs extending from the body ; wherein the sacrificial tool of the cluster-tool assembly (330; 530) is made of a softer material than the material used to fabricate the airfoil cluster (200, 252; 300; 406). an airfoil cluster (200, 252; 300; 406), the airfoil cluster (200, 252; 300; 406) including a supporting rail and the plurality of airfoils (302; 502) spaced about the supporting rail ; and characterised by a sacrificial tool unitarily formed with the airfoil cluster (200, 252; 300; 406), the sacrificial tool including a body and a plurality of prongs extending from the body ; wherein the sacrificial tool of the cluster-tool assembly (330; 530) is made of a softer material than the material used to fabricate the airfoil cluster (200, 252; 300; 406).
The use of coconut water as an extraction solvent, in particular for the extraction of compounds or for the preparation of extracts from plant, animal and/or prokaryotic biological material.