mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor radiation source comprising: an active core structure comprising a semiconductor material, a microheater (M) positioned above the active core structure in thermal communication with the active core structure, a top cladding layer above the active core structure, and below the microheater, a first electrode positioned on a side of the microheater (M) in electrical communication with the active core structure for injecting current into the active core structure to control the current density in the active core structure; characterized in that the source further comprises additional top cladding layers positioned between the active core and the microheater (M), and the top cladding layer and the additional top cladding layers comprising trenches (T) along both sides of the microheater (M), such that heat from the microheater propagates principally vertically within the source toward the core structure; and the top cladding layer and the additional top cladding layers are n-doped, with the layers having successively higher doping in the ascending order towards the microheater (M). an active core structure comprising a semiconductor material, a microheater (M) positioned above the active core structure in thermal communication with the active core structure, a top cladding layer above the active core structure, and below the microheater, a first electrode positioned on a side of the microheater (M) in electrical communication with the active core structure for injecting current into the active core structure to control the current density in the active core structure; characterized in that the source further comprises additional top cladding layers positioned between the active core and the microheater (M), and the top cladding layer and the additional top cladding layers comprising trenches (T) along both sides of the microheater (M), such that heat from the microheater propagates principally vertically within the source toward the core structure; and additional top cladding layers positioned between the active core and the microheater (M), and the top cladding layer and the additional top cladding layers comprising trenches (T) along both sides of the microheater (M), such that heat from the microheater propagates principally vertically within the source toward the core structure; and the top cladding layer and the additional top cladding layers are n-doped, with the layers having successively higher doping in the ascending order towards the microheater (M).
A fan including a rotating unit including a base , and a fan body that is rotatably mounted to said base ; and a housing unit including an outer ring that surrounds and is connected to said base , a plurality of connecting members that are mounted to an outer peripheral surface of said outer ring and that are spaced apart from each other, and a base member that surrounds said rotating unit and said outer ring and that is connected to said connecting members ; said base member has a plurality of receiving holes , and each of said connecting members is made of a shock-absorbing material, and is fixed in a respective one of said receiving holes ; said base member of said housing unit includes a main body , a plurality of extending walls that extend from said main body , and a plurality of attaching members that are respectively mounted to distal ends of said extending walls , said receiving holes being respectively formed in said distal ends of said extending walls characterized in that : each of said attaching members has an attaching main body that is formed with an insertion passage defined by two inner wall surfaces of said attaching main body , which face each other, and two block walls respectively extending from said two inner wall surfaces toward a corresponding one of said receiving holes , said insertion passage being spatially communicated with the corresponding one of said receiving holes and having an outwardly diverging opening defined by said two inner wall surfaces ; and each of said connecting members is elastic and abuts against said two block walls of a respective one of said attaching members so as to be prevented from removal from a corresponding one of said receiving holes , while being allowed to enter the corresponding one of said receiving holes through said outwardly diverging opening of said insertion passage of a corresponding one of said attaching members by deformation during passing through said insertion passage . each of said attaching members has an attaching main body that is formed with an insertion passage defined by two inner wall surfaces of said attaching main body , which face each other, and two block walls respectively extending from said two inner wall surfaces toward a corresponding one of said receiving holes , said insertion passage being spatially communicated with the corresponding one of said receiving holes and having an outwardly diverging opening defined by said two inner wall surfaces ; and each of said connecting members is elastic and abuts against said two block walls of a respective one of said attaching members so as to be prevented from removal from a corresponding one of said receiving holes , while being allowed to enter the corresponding one of said receiving holes through said outwardly diverging opening of said insertion passage of a corresponding one of said attaching members by deformation during passing through said insertion passage .
An in-vehicle system mountable on a vehicle having an automated driving function for automatically controlling at least one of steering and a vehicle speed of the vehicle, the in-vehicle system including: an information presentation unit (21-25) configured to present information related to automated driving to a driver of the vehicle; and a call management unit connectable to a mobile terminal capable of wireless communication, wherein when a situation in which the information presentation unit (21-25) presents information related to automated driving is detected, the call management unit automatically restricts an operation of the mobile terminal ; characterized in that when the operation of the mobile terminal is restricted or a restriction of the operation of the mobile terminal is expected, the call management unit automatically transmits information related to the restriction to a second terminal communicating with the mobile terminal , and when it is expected that a first state where the operation of the mobile terminal should be restricted occurs, the call management unit automatically switches an extent of the operation restriction of the mobile terminal according to an amount of a remaining time or distance until the vehicle reaches the first state. an information presentation unit (21-25) configured to present information related to automated driving to a driver of the vehicle; and a call management unit connectable to a mobile terminal capable of wireless communication, wherein when a situation in which the information presentation unit (21-25) presents information related to automated driving is detected, the call management unit automatically restricts an operation of the mobile terminal ; characterized in that when the operation of the mobile terminal is restricted or a restriction of the operation of the mobile terminal is expected, the call management unit automatically transmits information related to the restriction to a second terminal communicating with the mobile terminal , and when it is expected that a first state where the operation of the mobile terminal should be restricted occurs, the call management unit automatically switches an extent of the operation restriction of the mobile terminal according to an amount of a remaining time or distance until the vehicle reaches the first state.
An apparatus for group-based communication channel data management for group-based communication channels in a group-based communication system, the apparatus comprising at least one processor and at least one non-transitory memory including computer program code, the at least one non-transitory memory and the computer program code, with the at least one processor, configure the apparatus to: identify a shared group-based communication channel accessible to a plurality of client devices associated with a plurality of organization identifiers; retrieve a group-based communication message set associated with the shared group-based communication channel; identify a first data retention policy associated with a first group-based communication message of the group-based communication message set based at least in part on the shared group-based communication channel, the first data retention policy defining a period of time the first group-based communication message is to be maintained by the group-based communication system; perform a message management action for the first group-based communication message based on a determination of whether the first group-based communication message satisfies the corresponding first data retention policy; and cause rendering, via a client device of the plurality of client devices, of a group-based communication interface associated with the shared group-based communication channel, wherein the group-based communication interface comprises the first group-based communication message associated with the first data retention policy. identify a shared group-based communication channel accessible to a plurality of client devices associated with a plurality of organization identifiers; retrieve a group-based communication message set associated with the shared group-based communication channel; identify a first data retention policy associated with a first group-based communication message of the group-based communication message set based at least in part on the shared group-based communication channel, the first data retention policy defining a period of time the first group-based communication message is to be maintained by the group-based communication system; perform a message management action for the first group-based communication message based on a determination of whether the first group-based communication message satisfies the corresponding first data retention policy; and cause rendering, via a client device of the plurality of client devices, of a group-based communication interface associated with the shared group-based communication channel, wherein the group-based communication interface comprises the first group-based communication message associated with the first data retention policy.
A nuclear reactor fuel assembly with a cross-section in the shape of the regular hexagon, comprising upper and bottom nozzles, guiding channels, fuel elements located at the nodes of a triangular grid and at least one lattice consisting of permanently interconnected cells made in the shape of a polygonal tube , the longitudinal axis of which coincides with the longitudinal axis of the fuel elements, each cell comprising six non-adjacent faces that are made inclined due to a change in their width along the cell axis, and each cell comprises faces that are located between the non-adjacent faces and that run parallel to the axis of the fuel assembly, the cells being adjacent to each other by faces and the cells are located in lattice in rows parallel to one of the large diagonals of the regular hexagon, characterized in that one pair of opposite non-adjacent faces has an edge width on the upper nozzle side smaller than the edge width on the bottom nozzle side, the cell's centerline intersecting these faces forms an angle of 30 degrees with the above diagonal , the remaining non-adjacent faces have an edge width on the upper nozzle side that is greater than the edge width on the bottom nozzle side, the cells of each row being oriented in the same way, and the cells' centerlines in adjacent rows form an angle of 60 degrees.
A 3-axis gimbal comprising: a first supporting body ; a lens barrel comprising a lens group and coupled to the first supporting body in a rotatable manner about a first axis (A1); a rolling driving unit mounted to an outer circumferential surface of the lens barrel at a first position of the lens barrel to provide force for rotating the lens group about a second axis (A2) perpendicular to the first axis (A1); a pitching driving unit mounted to the first supporting body to provide force for rotating the lens barrel about the first axis (A1); a second supporting body coupled to the first supporting body in a rotatable manner about a third axis (A3) perpendicular to each of the first and second axes (A1, A2); and a yawing driving unit mounted to the second supporting body to allow the first supporting body to rotate about the third axis (A3), wherein the lens barrel further comprises: a housing and a rotating member disposed in a rotatable manner in the housing ; an image sensor mounted to the rotating member , the lens group facing the image sensor , wherein the image sensor and the lens group rotate together on the rotating member about the first axis (A1); and at least one rolling unit. a first supporting body ; a lens barrel comprising a lens group and coupled to the first supporting body in a rotatable manner about a first axis (A1); a rolling driving unit mounted to an outer circumferential surface of the lens barrel at a first position of the lens barrel to provide force for rotating the lens group about a second axis (A2) perpendicular to the first axis (A1); a pitching driving unit mounted to the first supporting body to provide force for rotating the lens barrel about the first axis (A1); a second supporting body coupled to the first supporting body in a rotatable manner about a third axis (A3) perpendicular to each of the first and second axes (A1, A2); and a yawing driving unit mounted to the second supporting body to allow the first supporting body to rotate about the third axis (A3), wherein the lens barrel further comprises: a housing and a rotating member disposed in a rotatable manner in the housing ; an image sensor mounted to the rotating member , the lens group facing the image sensor , wherein the image sensor and the lens group rotate together on the rotating member about the first axis (A1); and at least one rolling unit.
A compound of formula III, IV or V: wherein, each R is isopropyl; two Ar groups are phenyl; and A is Br, Cl or I, preferably Br, wherein the compound is preferably in a solid form. each R is isopropyl; two Ar groups are phenyl; and A is Br, Cl or I, preferably Br, wherein the compound is preferably in a solid form.
Fluid connection element for establishing a fluid connection by means of a connecting socket , comprising: a receiving socket for receiving the connecting socket ; a locking sleeve , which is arranged in the receiving socket in an axially displaceable manner and is configured to receive the connecting socket , wherein the locking sleeve comprises a locking element , which is configured to lock the connecting socket received in the locking sleeve ; an actuating element (125, 125-1, 125-2, 125-3), which is configured to fix the locking sleeve for releasing the locking, so that the connecting socket is guidable out of the locking sleeve ; characterized in that the fluid connection element further comprises a rotatable outer sleeve , which encloses the receiving socket in a rotatable manner, wherein the rotatable outer sleeve comprises a releasing position, which enables the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, and a securing position, which prevents the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, wherein the rotatable outer sleeve is rotatable between the releasing position and the securing position. a receiving socket for receiving the connecting socket ; a locking sleeve , which is arranged in the receiving socket in an axially displaceable manner and is configured to receive the connecting socket , wherein the locking sleeve comprises a locking element , which is configured to lock the connecting socket received in the locking sleeve ; an actuating element (125, 125-1, 125-2, 125-3), which is configured to fix the locking sleeve for releasing the locking, so that the connecting socket is guidable out of the locking sleeve ; characterized in that the fluid connection element further comprises a rotatable outer sleeve , which encloses the receiving socket in a rotatable manner, wherein the rotatable outer sleeve comprises a releasing position, which enables the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, and a securing position, which prevents the actuating of the actuating element (125, 125-1, 125-2, 125-3) for releasing the locking, wherein the rotatable outer sleeve is rotatable between the releasing position and the securing position.
A solid-phase chelator material comprising a solid phase, polyamine groups bound to the solid phase and chelating groups bound to the polyamine groups, wherein at least a part of the polyamine groups are connected with at least two chelating groups per polyamine group and wherein each chelating group comprises one or several aminopolycarboxylic acid groups (APA groups), with the proviso that the number of APA groups per polyamine group connected with at least two chelating groups is at least three, wherein the APA groups are derived from the APAs which are selected from the group consisting of ethylenediaminetetraacetic acid, diethylenetriaminepentaacetic acid, triethylenetetraminehexaacetic acid, ethylenediamine-N,N'-disuccinic acid, ethyleneglycol-bis(β-aminoethyl ether)-N,N,N',N'-tetraacetic acid, 1,4,7,10-tetraazacyclododecane-1,4,7,10-tetraacetic acid, and 1,4,7-triazacyclononane-1,4,7-trisacetic acid, wherein the polyamine groups are derived from the polyamines which are selected from the group consisting of diethylene triamine, triethylene tetramine, tetraethylene pentamine, pentaethylene hexamine, linear and branched polyethylene imine, poly-lysine, polypropylene imine, the macrocylic polyamines cyclame, and cyclen, the branched polyamines 1,1,1-tris(aminomethyl)ethane, tris-aminoethyl amine, tris aminopropyl amine, tetrakis-ethylamino amine, and tetrakis-ethylamino amine.
A method for producing a 1,3-dioxolane compound represented by the following formula 1, containing the following steps (a) to (c): step (a): a step of bringing hexafluoroacetone monohydrate into contact with a metal fluoride, step (b): a step of bringing a fluorine gas into contact, and step (c): a step of bringing an olefin compound represented by the following formula 2 into contact, wherein step (a) is performed before steps (b) and (c), (in the formulas 1 and 2, X 1 to X 4 are each independently a hydrogen atom, a fluorine atom, a chlorine atom, or a trifluoromethyl group). step (a): a step of bringing hexafluoroacetone monohydrate into contact with a metal fluoride, step (b): a step of bringing a fluorine gas into contact, and step (c): a step of bringing an olefin compound represented by the following formula 2 into contact, wherein step (a) is performed before steps (b) and (c), (in the formulas 1 and 2, X 1 to X 4 are each independently a hydrogen atom, a fluorine atom, a chlorine atom, or a trifluoromethyl group).
A metal oxide semiconductor, MOS, diode , comprising: a p-type MOS, pMOS transistor having a pMOS transistor source , a pMOS transistor drain , a pMOS transistor gate , and a pMOS transistor body , wherein the pMOS transistor drain, the pMOS transistor source, and the pMOS transistor body are coupled together and to a first voltage source; and an n-type MOS, nMOS, transistor having an nMOS transistor source , an nMOS transistor drain , an nMOS transistor gate , and an nMOS transistor body , the nMOS transistor body being coupled to a second voltage source and being an anode of the diode, the second voltage source being lower than the first voltage source, wherein the nMOS transistor gate, the nMOS transistor source, the nMOS transistor drain, and the pMOS transistor gate are coupled together and are a cathode of the diode . a p-type MOS, pMOS transistor having a pMOS transistor source , a pMOS transistor drain , a pMOS transistor gate , and a pMOS transistor body , wherein the pMOS transistor drain, the pMOS transistor source, and the pMOS transistor body are coupled together and to a first voltage source; and an n-type MOS, nMOS, transistor having an nMOS transistor source , an nMOS transistor drain , an nMOS transistor gate , and an nMOS transistor body , the nMOS transistor body being coupled to a second voltage source and being an anode of the diode, the second voltage source being lower than the first voltage source, wherein the nMOS transistor gate, the nMOS transistor source, the nMOS transistor drain, and the pMOS transistor gate are coupled together and are a cathode of the diode .
A landing gear for an aircraft comprising: a main strut arranged to be coupled to the aircraft and movable between a deployed condition and a retracted condition, a stay arranged to support the main strut, the stay comprising a first stay arm coupled to the main strut and a second stay arm pivotally coupled to the first stay arm and arranged to be coupled to the aircraft, a lock assembly arranged to prevent movement of the stay when the lock assembly is in a locked position, the lock assembly comprising a first lock link pivotally coupled to the stay and a second lock link pivotally coupled to the first lock link and arranged to be coupled to the aircraft or another component of the landing gear assembly; and a spring coupled to a first member and to a second member, the spring being arranged to generate a biasing force between the first member and the second member to bias the first member toward a predetermined orientation relative to the second member, wherein the first member is the first lock link or the second lock link characterised in that the spring comprises a plurality of elastically deformable washers ; and further characterised in that when the main strut is in the retracted condition, the elastically deformable washers are substantially unstressed. a main strut arranged to be coupled to the aircraft and movable between a deployed condition and a retracted condition, a stay arranged to support the main strut, the stay comprising a first stay arm coupled to the main strut and a second stay arm pivotally coupled to the first stay arm and arranged to be coupled to the aircraft, a lock assembly arranged to prevent movement of the stay when the lock assembly is in a locked position, the lock assembly comprising a first lock link pivotally coupled to the stay and a second lock link pivotally coupled to the first lock link and arranged to be coupled to the aircraft or another component of the landing gear assembly; and a spring coupled to a first member and to a second member, the spring being arranged to generate a biasing force between the first member and the second member to bias the first member toward a predetermined orientation relative to the second member, wherein the first member is the first lock link or the second lock link characterised in that the spring comprises a plurality of elastically deformable washers ; and further characterised in that when the main strut is in the retracted condition, the elastically deformable washers are substantially unstressed.
The use of a multi-component system comprising a) a polyorganosiloxane b) a polyhydrogen organosiloxane c) a photoactivatable catalyst d) a blowing agent the polyhydrogen organosiloxane b) being assigned to a first component I) and the photoactivatable catalyst c) to a second component II), which components are spatially separated from one another, for producing a seal foamed in situ on a component part, a reaction mixture that results by mixing the components of the multi-component system being irradiated with light, characterized in that the blowing agent d) is a compound having at least one hydroxyl group or a mixture of compounds having hydroxyl groups. a) a polyorganosiloxane b) a polyhydrogen organosiloxane c) a photoactivatable catalyst d) a blowing agent