mhurhangee/patent-ind-claim-en huggingface dataset:
A case assembly for a turbine section of a gas turbine engine , comprising: a structural outer case configured to be structurally connected to a gas generator case and to an exhaust case ; a containment ring mounted within the structural outer case and configured to surround a plurality of axially spaced-apart turbine stages (S1,S2,S3), an inner surface of the containment ring defining a plurality of shroud receiving portions ; an annular plenum defined between the structural outer case and the containment ring , the annular plenum having an inlet connectable to a source of pressurized coolant; and outlets circumferentially and axially distributed and defined through the containment ring , the outlets providing flow communication between the annular plenum and the plurality of axially spaced-apart turbine stages (S1,S2,S3), characterised in that : the outer surface of the containment ring defines circumferentially separated slots engaged by circumferentially separated lugs inwardly protruding from the structural outer case . a structural outer case configured to be structurally connected to a gas generator case and to an exhaust case ; a containment ring mounted within the structural outer case and configured to surround a plurality of axially spaced-apart turbine stages (S1,S2,S3), an inner surface of the containment ring defining a plurality of shroud receiving portions ; an annular plenum defined between the structural outer case and the containment ring , the annular plenum having an inlet connectable to a source of pressurized coolant; and outlets circumferentially and axially distributed and defined through the containment ring , the outlets providing flow communication between the annular plenum and the plurality of axially spaced-apart turbine stages (S1,S2,S3), characterised in that : the outer surface of the containment ring defines circumferentially separated slots engaged by circumferentially separated lugs inwardly protruding from the structural outer case .
An electronic device , comprising an antenna, the antenna comprising: a first metal segment including a first engagement portion , wherein the first engagement portion includes at least one first metal support layer formed on a surface of the first metal segment, and the at least one first metal support layer includes at least one first hole; a second metal segment including a second engagement portion , wherein the second engagement portion includes at least one second metal support layer formed on a surface of the second metal segment, and the second metal support layer includes at least one second hole, the second metal segment spaced apart from the first metal segment so as to define a slit with the first metal segment; a support insulator configured to engage the first and second engagement portions, the support insulator supporting the first and second metal segments, and providing insulation between the first and second metal segments, wherein at least a portion of the support insulator is connected to the at least one first hole and the at least one second hole; and a filler enclosing at least the portion of the support insulator, and filling at least a portion of the slit. a first metal segment including a first engagement portion , wherein the first engagement portion includes at least one first metal support layer formed on a surface of the first metal segment, and the at least one first metal support layer includes at least one first hole; a second metal segment including a second engagement portion , wherein the second engagement portion includes at least one second metal support layer formed on a surface of the second metal segment, and the second metal support layer includes at least one second hole, the second metal segment spaced apart from the first metal segment so as to define a slit with the first metal segment; a support insulator configured to engage the first and second engagement portions, the support insulator supporting the first and second metal segments, and providing insulation between the first and second metal segments, wherein at least a portion of the support insulator is connected to the at least one first hole and the at least one second hole; and a filler enclosing at least the portion of the support insulator, and filling at least a portion of the slit.
Electrical plug connector , comprising an insulating plug connector housing and at least one electrical contact element that is received in the plug connector housing , wherein the plug connector housing forms a mating side and a connection side , wherein at least one contact opening is formed in the plug connector housing , said contact opening extending from the mating side through the plug connector housing as far as the connection side , wherein the electrical contact element is received in the contact opening and is fixed therein, wherein the plug connector housing comprises a cable fixing arrangement on the connection side , the cable fixing arrangement is formed from a first fixing element , which is formed as one on the plug connector housing , and a second fixing element that cooperates with the first fixing element , wherein the second fixing element comprises at least two first slots , wherein the second fixing element comprises a second slot between two first slots respectively, characterized in that the second slot is provided so as to receive a rib that is formed as one on the first fixing element, in that the at least one rib is dimensioned wider than the at least one second slot, such that when the first and second fixing elements are being joined together, the second slots are pushed apart and simultaneously the first slots are pushed together.
Two-layer metal cord , characterized in that it comprises: - an internal layer (C1) made up of M>1 internal metallic threads (F1), - an external layer (C3) of the cord, made up of N external metallic threads (F3) wound around the internal layer (C1), of the cord, wherein: the cord is obtained by a method comprising a step of manufacturing the sheathed internal layer (CIG) in which step the internal layer (Cl) is surrounded with an elastomer composition having a thickness G and then by the N external metallic threads to form the external layer (C3), where N is strictly greater than Nmax which is the maximum number of external metallic threads (F3) that can be laid on the theoretical external layer (C3T) obtained when the internal layer (C1) is directly in contact with the theoretical external layer (C3T). - an internal layer (C1) made up of M>1 internal metallic threads (F1), - an external layer (C3) of the cord, made up of N external metallic threads (F3) wound around the internal layer (C1), of the cord, wherein: the cord is obtained by a method comprising a step of manufacturing the sheathed internal layer (CIG) in which step the internal layer (Cl) is surrounded with an elastomer composition having a thickness G and then by the N external metallic threads to form the external layer (C3), where N is strictly greater than Nmax which is the maximum number of external metallic threads (F3) that can be laid on the theoretical external layer (C3T) obtained when the internal layer (C1) is directly in contact with the theoretical external layer (C3T).
A radiator, comprising: a radiating part , comprising: a housing ; and a set of blades which are arranged on the inner surface of the housing ; a heat conductive part , comprising: a shell , the shell has a heat conductive surface which is configured to be in contact with a heat source ; and a receiving section with two open ends, the receiving section is defined by the shell , and the receiving section is configured to receive the radiating part ; heat conductive fluid , the heat conductive fluid is defined in between the housing of the radiating part and the receiving section of the heat conductive part by a sealed bearing; and heat pipes buried inside of the shell of the heat conductive part ; wherein, the radiating part is rotatably fixed on the receiving section of the heat conductive part , when the radiating part rotates, fluid can be drawn into one end of the receiving section and then blown out at the other end by the blades . a radiating part , comprising: a housing ; and a set of blades which are arranged on the inner surface of the housing ; a housing ; and a set of blades which are arranged on the inner surface of the housing ; a heat conductive part , comprising: a shell , the shell has a heat conductive surface which is configured to be in contact with a heat source ; and a receiving section with two open ends, the receiving section is defined by the shell , and the receiving section is configured to receive the radiating part ; a shell , the shell has a heat conductive surface which is configured to be in contact with a heat source ; and a receiving section with two open ends, the receiving section is defined by the shell , and the receiving section is configured to receive the radiating part ; heat conductive fluid , the heat conductive fluid is defined in between the housing of the radiating part and the receiving section of the heat conductive part by a sealed bearing; and heat pipes buried inside of the shell of the heat conductive part ; wherein, the radiating part is rotatably fixed on the receiving section of the heat conductive part , when the radiating part rotates, fluid can be drawn into one end of the receiving section and then blown out at the other end by the blades .
An electric power steering apparatus that comprises a control substrate that controls a poly-phase motor having a multi-system motor winding, comprising: a temperature sensor that detects a substrate temperature of said control substrate; and a coil temperature estimating section that obtains coil calorific values of respective phases of said poly-phase motor and a substrate calorific value of said control substrate by a motor current of said phase, characterised in that the coil temperature estimating section estimates a coil temperature of said phase by said coil calorific value, said substrate calorific value and said substrate temperature based on a heat transfer phenomenon between said respective phases that is caused by a difference in temperature between coils of said respective phases and a heat transfer phenomenon between said coil and said control substrate, wherein said coil temperature estimating section estimates said coil temperature by a corrected coil calorific value and a corrected substrate calorific value that are obtained by correcting said coil calorific value and said substrate calorific value that are obtained in a normal system, and said substrate temperature, when an abnormality occurs in any of systems, and wherein said heat transfer phenomenon is expressed by a differential equation. a temperature sensor that detects a substrate temperature of said control substrate; and a coil temperature estimating section that obtains coil calorific values of respective phases of said poly-phase motor and a substrate calorific value of said control substrate by a motor current of said phase, characterised in that the coil temperature estimating section estimates a coil temperature of said phase by said coil calorific value, said substrate calorific value and said substrate temperature based on a heat transfer phenomenon between said respective phases that is caused by a difference in temperature between coils of said respective phases and a heat transfer phenomenon between said coil and said control substrate, wherein said coil temperature estimating section estimates said coil temperature by a corrected coil calorific value and a corrected substrate calorific value that are obtained by correcting said coil calorific value and said substrate calorific value that are obtained in a normal system, and said substrate temperature, when an abnormality occurs in any of systems, and wherein said heat transfer phenomenon is expressed by a differential equation.
A fitting arrangement for doors, windows or the like comprising a connecting rod which is drive-effectively coupled to an actuation device via a coupling mechanism and which can be displaced by the actuation device from at least one closed position into an unlocked position - and vice versa, wherein, in a closed position of the connecting rod , a clearance (X) is provided between components of the coupling mechanism that enables a displacement of the connecting rod without actuation of the actuation device without canceling the closed position, and wherein the coupling mechanism is blocked when the connecting rod is displaced in such a manner, and wherein the coupling mechanism comprises a toothed arrangement and recesses , wherein the clearance (X) is formed by a dimensioning of a first recess into which a first tooth of the toothed arrangement engages in the closed position of the connecting rod , characterized in that the actuation device has abutments which, as soon as the closed positions have been reached, define extreme positions of the actuation device, with the abutments contacting the connecting rod in the extreme positions of the actuation device. wherein, in a closed position of the connecting rod , a clearance (X) is provided between components of the coupling mechanism that enables a displacement of the connecting rod without actuation of the actuation device without canceling the closed position, and wherein the coupling mechanism is blocked when the connecting rod is displaced in such a manner, and wherein the coupling mechanism comprises a toothed arrangement and recesses , wherein the clearance (X) is formed by a dimensioning of a first recess into which a first tooth of the toothed arrangement engages in the closed position of the connecting rod , characterized in that the actuation device has abutments which, as soon as the closed positions have been reached, define extreme positions of the actuation device, with the abutments contacting the connecting rod in the extreme positions of the actuation device.
Electro-pyrotechnic igniter comprising: - a metal case containing pyrotechnic material, comprising at least one vent on a side wall , - a cap made of electrically insulating material which covers the metal case at least in the region of said at least one vent , - a plastic overmolding covering at least one end of the cap , - the metal case comprises at least one shoulder arranged between the side vent and a region of the metal case opposite the end of the cap covered by the overmolding, - said at least one vent of the metal case is defined by a region of thinned material, characterized in that : said at least one vent of the metal case is obtained by a striking operation, the cap has a first clearance with the metal case in the region in which said at least one vent is located, and a second clearance with the metal case in the fastening region, which is smaller than the first clearance. - a metal case containing pyrotechnic material, comprising at least one vent on a side wall , - a cap made of electrically insulating material which covers the metal case at least in the region of said at least one vent , - a plastic overmolding covering at least one end of the cap , - the metal case comprises at least one shoulder arranged between the side vent and a region of the metal case opposite the end of the cap covered by the overmolding, - said at least one vent of the metal case is defined by a region of thinned material, said at least one vent of the metal case is obtained by a striking operation, the cap has a first clearance with the metal case in the region in which said at least one vent is located, and a second clearance with the metal case in the fastening region, which is smaller than the first clearance.
A protective member for a wire harness (WH) having a branching point (S) between a trunk harness and a branch harness , the protective member comprising: a protective sheet portion to be wound around an outer circumference of at least the trunk harness near the branching point (S); and a pair of band-shaped fixing strip portions extending from the protective sheet portion and to be wound around on the trunk harness at a pair of spots, the branching point (S) being between the pair of the spots, characterized in that : the fixing strip portions extend from the protective sheet portion in opposite directions respectively, the fixing strip portions laterally extending from side portions of the both ends of the protective sheet portion , respectively, each of the fixing strip portions has a length that is larger than the circumferential length of at least the trunk harness, the protective member comprises a resin, and the fixing strip portions are smaller in thickness than the protective sheet portion . a protective sheet portion to be wound around an outer circumference of at least the trunk harness near the branching point (S); and a pair of band-shaped fixing strip portions extending from the protective sheet portion and to be wound around on the trunk harness at a pair of spots, the branching point (S) being between the pair of the spots, the fixing strip portions extend from the protective sheet portion in opposite directions respectively, the fixing strip portions laterally extending from side portions of the both ends of the protective sheet portion , respectively, each of the fixing strip portions has a length that is larger than the circumferential length of at least the trunk harness, the protective member comprises a resin, and the fixing strip portions are smaller in thickness than the protective sheet portion .
A method for processing paraffinic naphtha, the method comprising: contacting a paraffinic naphtha feedstock with a catalyst system in a dehydrogenation reactor, the catalyst system comprising a framework-substituted ultra-stable Y (USY)-type zeolite to produce a dehydrogenated product stream comprising olefins, wherein the framework-substituted USY-type zeolite has a modified USY framework, the modified USY framework comprising a USY aluminosilicate framework modified by substituting a portion of framework aluminum atoms of the USY aluminosilicate framework with substitution atoms independently selected from the group consisting of titanium atoms, zirconium atoms, hafnium atoms, and combinations thereof. contacting a paraffinic naphtha feedstock with a catalyst system in a dehydrogenation reactor, the catalyst system comprising a framework-substituted ultra-stable Y (USY)-type zeolite to produce a dehydrogenated product stream comprising olefins, wherein the framework-substituted USY-type zeolite has a modified USY framework, the modified USY framework comprising a USY aluminosilicate framework modified by substituting a portion of framework aluminum atoms of the USY aluminosilicate framework with substitution atoms independently selected from the group consisting of titanium atoms, zirconium atoms, hafnium atoms, and combinations thereof.
Device for automatically shifting a gearshift mechanism of a bicycle , in particular of an electric bicycle, comprising at least one shifting actuator for automatically activating the gearshift mechanism , at least one computing unit which is connected to the at least one shifting actuator , an operator control and display unit which is connected to the at least one computing unit , at least one inclination angle sensor for detecting a current terrain inclination (p) and at least one further sensor for detecting a current velocity (v) of the bicycle , wherein the at least one inclination angle sensor and the at least one further sensor are connected to the at least one computing unit , characterized in that the operator control and display unit - makes available a first input apparatus for inputting a first input value (E1) in the form of a gear speed (n) of the gearshift mechanism for starting on a level underlying surface (F), - makes available a second input apparatus for inputting a second input value (E2) in the form of a velocity (v) of the bicycle , at which shifting into a maximum gear speed (n) of the gearshift mechanism takes place on a level underlying surface (F); - has a third input apparatus for inputting a third input value (E3) in the form of a further velocity (v) of the bicycle , at which shifting into a maximum gear speed (n) for this terrain inclination takes place on an underlying surface (F) with a positive terrain inclination (ρ); and wherein a shifting algorithm which can be individualized on the basis of the first, second and third input values (E1, E2, E3) is stored in the at least one computing unit . - makes available a first input apparatus for inputting a first input value (E1) in the form of a gear speed (n) of the gearshift mechanism for starting on a level underlying surface (F), - makes available a second input apparatus for inputting a second input value (E2) in the form of a velocity (v) of the bicycle , at which shifting into a maximum gear speed (n) of the gearshift mechanism takes place on a level underlying surface (F); - has a third input apparatus for inputting a third input value (E3) in the form of a further velocity (v) of the bicycle , at which shifting into a maximum gear speed (n) for this terrain inclination takes place on an underlying surface (F) with a positive terrain inclination (ρ); and
Transport container for road or ship transport, comprising four side walls forming a box section, wherein two adjacent side walls together each form an L-shaped wall unit and the two L-shaped wall units are either removably connected to each other at two connection points or are removably connected to each other at one connection point and rotatably connected at another connection point , characterized in that the L-shaped wall units of the transport container are formed in such a way that said units can be removably and/or pivotally connected to the L-shaped wall units of a second transport container, so that the four L-shaped wall units of the two transport containers can be assembled into a box-shaped large capacity container .
A method of transmitting a Sidelink Hybrid Automatic Repeat Request, SL HARQ, feedback by a first device , the method comprising: receiving, from a second device , a Physical Sidelink Control Channel, PSCCH; receiving, from the second device , a Physical Sidelink Shared Channel, PSSCH, related to the PSCCH; determining a feedback resource related to transmission of the SL HARQ feedback, among a plurality of feedback resources, based on an identifier, ID, of the first device and a source ID of the second device , wherein the ID of the first device is an ID provided to the first device within a group, for identifying the first device among a plurality of devices performing groupcast communication within the group; transmitting, to the second device , the SL HARQ feedback related to the PSSCH based on the feedback resource. receiving, from a second device , a Physical Sidelink Control Channel, PSCCH; receiving, from the second device , a Physical Sidelink Shared Channel, PSSCH, related to the PSCCH; determining a feedback resource related to transmission of the SL HARQ feedback, among a plurality of feedback resources, based on an identifier, ID, of the first device and a source ID of the second device , wherein the ID of the first device is an ID provided to the first device within a group, for identifying the first device among a plurality of devices performing groupcast communication within the group; transmitting, to the second device , the SL HARQ feedback related to the PSSCH based on the feedback resource.