mhurhangee/patent-ind-claim-en huggingface dataset:
An isothermal container comprising: a heat insulating container having a bottom portion and a wall portion continuous with a peripheral edge of the bottom portion, the heat insulating container including a core material , an adsorbent , and two cover materials : facing each other, the two cover materials covering the core material and the adsorbent ; a heat insulating lid configured to close the heat insulating container ; a protection case that covers outside of the heat insulating container and outside of the heat insulating lid ; a box body housed inside the heat insulating container; a box lid configured to close the box body; and a phase change material provided on a bottom portion and a wall portion of the box body and the box lid , wherein the cover materials are joined together at faces facing the heat insulating lid among faces constituting the wall portion of the heat insulating container , and a joined part of the cover materials is located inside the protection case without being exposed to an outer surface of the protection case. a heat insulating container having a bottom portion and a wall portion continuous with a peripheral edge of the bottom portion, the heat insulating container including a core material , an adsorbent , and two cover materials : facing each other, the two cover materials covering the core material and the adsorbent ; a heat insulating lid configured to close the heat insulating container ; a protection case that covers outside of the heat insulating container and outside of the heat insulating lid ; a box body housed inside the heat insulating container; a box lid configured to close the box body; and a phase change material provided on a bottom portion and a wall portion of the box body and the box lid , wherein the cover materials are joined together at faces facing the heat insulating lid among faces constituting the wall portion of the heat insulating container , and a joined part of the cover materials is located inside the protection case without being exposed to an outer surface of the protection case.
An apparatus comprising: an application cross-stratum optimization, CSO, gateway, ACG, configured to communicate with a plurality of servers at an application stratum; and a network CSO gateway, NCG, coupled to the ACG via an application-network interface, ANI, and configured to communicate with a plurality of network nodes at a plurality of network layers below the application stratum, wherein the ANI is configured to exchange monitoring information and configuration between the application stratum and a network stratum to enable a network stratum related query and event escalation from the application stratum or an application stratum related query and event escalation from the network stratum. an application cross-stratum optimization, CSO, gateway, ACG, configured to communicate with a plurality of servers at an application stratum; and a network CSO gateway, NCG, coupled to the ACG via an application-network interface, ANI, and configured to communicate with a plurality of network nodes at a plurality of network layers below the application stratum, wherein the ANI is configured to exchange monitoring information and configuration between the application stratum and a network stratum to enable a network stratum related query and event escalation from the application stratum or an application stratum related query and event escalation from the network stratum.
Gripping member for gripping a layer of products comprising an upper closed wall , a suction plane associated on the lower side of the upper wall and adjustable in height, identifying an area for vacuum gripping, mechanical gripping elements, that can be moved and associated with the sides of the layer of products to be picked up, a lower safety support plane , movable between an open position of disengagement from the gripping area and a closed position at least partially in engagement with the gripping area, comprising a chamber , open only toward the bottom, said chamber being fastenable around the product layer for lifting the product layer through a peripheral mechanical grip and being connectable to means for generating depression, or vacuum, for pneumatically lifting the product layer by means of depression, characterized in that said chamber is telescopic and comprises a peripheral continuous gripping ring arranged at the periphery of the upper wall and consisting of four angular elements and at least four plate-like side elements , which are slidably arranged with respect to said angular elements , said upper wall being of plane dimensions adjustable between a minimum dimension, corresponding to the suction plane , and a maximum dimension, corresponding to the maximum dimension of the layer to be picked up.
A sleeve assembly for a combustion system, said sleeve assembly comprising: a first duct comprising a first circumferential surface , wherein the first duct is a transition duct; a second duct comprising a second circumferential surface , wherein the second duct is a liner and wherein said first circumferential surface radially overlaps said second circumferential surface such that said first duct and said second duct collectively define a continuous combustion chamber therein, the continuous combustion chamber configured to receive high temperature gases flowing therethrough; and a wear insert removably coupled to said first circumferential surface and extending radially therefrom to engage said second circumferential surface; wherein said second duct further comprises a body and a seal extending axially from said body, wherein said seal comprises said second circumferential surface, wherein said first duct defines a groove radially recessed from said first circumferential surface , wherein said wear insert is seated within the groove ; and wherein said first duct further comprises a first radial surface for engaging a first radial edge of said wear insert and a second radial surface , wherein the groove is defined axially between said first radial surface and said second radial surface , wherein said second radial surface is axially spaced from said first radial surface to engage a second radial edge of said wear insert to inhibit axial movement of said wear insert within the groove . a first duct comprising a first circumferential surface , wherein the first duct is a transition duct; a second duct comprising a second circumferential surface , wherein the second duct is a liner and wherein said first circumferential surface radially overlaps said second circumferential surface such that said first duct and said second duct collectively define a continuous combustion chamber therein, the continuous combustion chamber configured to receive high temperature gases flowing therethrough; and a wear insert removably coupled to said first circumferential surface and extending radially therefrom to engage said second circumferential surface; wherein said second duct further comprises a body and a seal extending axially from said body, wherein said seal comprises said second circumferential surface, wherein said first duct defines a groove radially recessed from said first circumferential surface , wherein said wear insert is seated within the groove ; and wherein said first duct further comprises a first radial surface for engaging a first radial edge of said wear insert and a second radial surface , wherein the groove is defined axially between said first radial surface and said second radial surface , wherein said second radial surface is axially spaced from said first radial surface to engage a second radial edge of said wear insert to inhibit axial movement of said wear insert within the groove .
Electroplated product, comprising a) a base material; b) a first layer comprising or consisting of copper, wherein the first layer is disposed on the base material; c) a second layer comprising or consisting of a first copper alloy, wherein the first copper alloy comprises tin and zinc; d) a third layer comprising or consisting of a second copper alloy, wherein the second copper alloy comprises tin and zinc; and e) a fourth layer comprising or consisting of a precious metal, wherein the precious metal is selected from the group consisting of gold, silver, platinum, ruthenium, rhodium, palladium, osmium, iridium and alloys thereof; wherein i) the second layer is disposed on the first layer, the third layer is disposed on the second layer and the fourth layer is disposed on the third layer; or ii) the third layer is disposed on the first layer, the second layer is disposed on the third layer and the fourth layer is disposed on the second layer; and wherein the copper concentration in the first copper alloy is different from the copper concentration in the second copper alloy, characterized in that the fourth layer is the finishing metal layer of the electroplated product, and the first layer has a thickness in the range of >15 to 60 μm. a) a base material; b) a first layer comprising or consisting of copper, wherein the first layer is disposed on the base material; c) a second layer comprising or consisting of a first copper alloy, wherein the first copper alloy comprises tin and zinc; d) a third layer comprising or consisting of a second copper alloy, wherein the second copper alloy comprises tin and zinc; and e) a fourth layer comprising or consisting of a precious metal, wherein the precious metal is selected from the group consisting of gold, silver, platinum, ruthenium, rhodium, palladium, osmium, iridium and alloys thereof; i) the second layer is disposed on the first layer, the third layer is disposed on the second layer and the fourth layer is disposed on the third layer; or ii) the third layer is disposed on the first layer, the second layer is disposed on the third layer and the fourth layer is disposed on the second layer;
Illumination apparatus for outputting an output light, comprising a first light source configured to emit first light with a first peak wavelength in a first range of 660 nm to 699 nm; wherein the illumination apparatus is characterized by further comprising a second light source configured to emit second light with a second peak wavelength in a second range of 689 nm to 705 nm; wherein the second peak wavelength is larger than the first peak wavelength by at least 5 nm; the second light source is configured to be switched on and off independently from the first light source; the apparatus is configured to output the first light as the output light if the second light source is switched off and to output the first light and the second light as the output light if the second light source is switched on. wherein the illumination apparatus is characterized by further comprising a second light source configured to emit second light with a second peak wavelength in a second range of 689 nm to 705 nm; wherein the second peak wavelength is larger than the first peak wavelength by at least 5 nm; the second light source is configured to be switched on and off independently from the first light source; the apparatus is configured to output the first light as the output light if the second light source is switched off and to output the first light and the second light as the output light if the second light source is switched on.
A computer-implemented method of operating a computed tomography scanner comprising a subject support configured to move linearly and a rotating portion that mounts a radiation outputting system and controllably rotates around the subject support, the computer-implemented method comprising performing a scanning procedure comprising: controlling the radiation outputting system to output radiation during an imaging phase of the scanning procedure; controlling the subject support to move linearly, the linear movement of the subject support during the imaging phase of the scanning procedure including at least one acceleration (t a ) or deceleration phase (t d ); and controlling one or more parameters of the computed tomography scanner responsive to the speed of the subject support, wherein the one or more parameters comprises at least a beam width (w) of the radiation output by the radiation outputting system, and characterized in that the step of controlling one or more parameters comprises controlling the beam width proportionally to the speed of the subject support. controlling the radiation outputting system to output radiation during an imaging phase of the scanning procedure; controlling the subject support to move linearly, the linear movement of the subject support during the imaging phase of the scanning procedure including at least one acceleration (t a ) or deceleration phase (t d ); and controlling one or more parameters of the computed tomography scanner responsive to the speed of the subject support, wherein the one or more parameters comprises at least a beam width (w) of the radiation output by the radiation outputting system, and characterized in that the step of controlling one or more parameters comprises controlling the beam width proportionally to the speed of the subject support.
A hybrid-electric powertrain system for aircraft, the system comprising: a gearbox having a first rotary shaft to drive an air mover for aircraft thrust; a first prime mover connected by a second rotary shaft to the gearbox for power input to the gearbox ; and a second prime mover connected by a third rotary shaft to the gearbox , wherein the second prime mover has a hollow core , and at least one of the first and second rotary shafts passes through the hollow core and the third rotary shaft , wherein the second prime mover is an electric mover that includes a stator mounted stationary relative to the gearbox , and a rotor within the stator , and the rotor is connected to the third rotary shaft for rotary input to the gearbox , characterised in that : a plurality of spokes connect the rotor to the third rotary shaft . a gearbox having a first rotary shaft to drive an air mover for aircraft thrust; a first prime mover connected by a second rotary shaft to the gearbox for power input to the gearbox ; and a second prime mover connected by a third rotary shaft to the gearbox , wherein the second prime mover has a hollow core , and at least one of the first and second rotary shafts passes through the hollow core and the third rotary shaft , wherein the second prime mover is an electric mover that includes a stator mounted stationary relative to the gearbox , and a rotor within the stator , and the rotor is connected to the third rotary shaft for rotary input to the gearbox , characterised in that : a plurality of spokes connect the rotor to the third rotary shaft .
A system for placing a composite ply , the system comprising: a transfer end effector that is movable relative to a carrier transfer device , configured to convey a ply carrier that supports the composite ply , wherein the ply carrier comprises a base plate that is magnetic and a film positioned on the base plate and forming a ply support surface for the composite ply , said transfer end effector comprising a magnetic chuck that is configured to magnetically engage the base plate for removal of the ply carrier from the carrier transfer device by the transfer end effector ; and a placement end effector that is movable relative to the transfer end effector and to a forming tool , said magnetic chuck being further configured to magnetically disengage the base plate for removal of the ply carrier from the transfer end effector by the placement end effector ; wherein: the transfer end effector is configured to remove the ply carrier , supporting the composite ply , from the carrier transfer device and to position the ply carrier for removal by the placement end effector ; and the placement end effector is configured to remove the ply carrier from the transfer end effector and to apply the composite ply to the forming tool . a transfer end effector that is movable relative to a carrier transfer device , configured to convey a ply carrier that supports the composite ply , wherein the ply carrier comprises a base plate that is magnetic and a film positioned on the base plate and forming a ply support surface for the composite ply , said transfer end effector comprising a magnetic chuck that is configured to magnetically engage the base plate for removal of the ply carrier from the carrier transfer device by the transfer end effector ; and a placement end effector that is movable relative to the transfer end effector and to a forming tool , said magnetic chuck being further configured to magnetically disengage the base plate for removal of the ply carrier from the transfer end effector by the placement end effector ; wherein: the transfer end effector is configured to remove the ply carrier , supporting the composite ply , from the carrier transfer device and to position the ply carrier for removal by the placement end effector ; and the placement end effector is configured to remove the ply carrier from the transfer end effector and to apply the composite ply to the forming tool . the transfer end effector is configured to remove the ply carrier , supporting the composite ply , from the carrier transfer device and to position the ply carrier for removal by the placement end effector ; and the placement end effector is configured to remove the ply carrier from the transfer end effector and to apply the composite ply to the forming tool .
A method for preparing a nucleic acid derived from a skin cell of a subject, comprising isolating the nucleic acid from skin surface lipids collected from the subject.
An atomizer , provided with an atomizing cavity , and comprising: an atomizing core configured to atomize an aerosol generating substrate to form an aerosol; a base provided with an air inlet ; characterised in that the atomizer further comprises a sealing member disposed on the base , and having an upper surface facing the atomizing core , the sealing member comprising a raised platform connected to the upper surface and protruding opposite to the upper surface , wherein the raised platform is provided with an orifice channeling air flow around the atomizing cavity and the air inlet , the raised platform has an inclined surface located outside the orifice and facing the atomizing core , for transferring liquid; in a direction away from the orifice , a distance between the inclined surface and the upper surface gradually decreases. an atomizing core configured to atomize an aerosol generating substrate to form an aerosol; a base provided with an air inlet ; characterised in that the atomizer further comprises a sealing member disposed on the base , and having an upper surface facing the atomizing core , the sealing member comprising a raised platform connected to the upper surface and protruding opposite to the upper surface , wherein the raised platform is provided with an orifice channeling air flow around the atomizing cavity and the air inlet , the raised platform has an inclined surface located outside the orifice and facing the atomizing core , for transferring liquid; in a direction away from the orifice , a distance between the inclined surface and the upper surface gradually decreases.
Vehicle wheel, constructed from at least one wheel spider or a wheel disc made of metal, and a rim made of fibre composite material, wherein the wheel spider or the wheel disc and the rim are connected together by means of threaded screws by the latter being screwed into the wheel spider or the wheel disc through bores with a respective bushing , introduced into the latter, with a collar that extends between a head of each threaded screw and the rim well or with a respective disc , in particular made of glass fibre, located between a head of each threaded screw and the rim well , in a manner distributed around the circumference of a rim well and inserted through the bushings , characterized in that , for the reception of the threaded screws in blind holes in the wheel spider or the wheel disc, at least the blind holes are provided with a threaded insert , of which at least one threaded insert extends as far as the bushing or the disc .
A method performed by a wireless device , the method comprising: transmitting , to a radio network node , a radio resource control, RRC, connection request that requests resumption of an RRC connection and that indicates a type of core network to which the wireless device selects to connect, wherein the transmitting of the RRC connection request is without integrity protection and/or confidentiality protection, and receiving a response to the RRC connection request that is integrity protected and/or confidentiality protected according to a security algorithm that depends on a type of core network indicated by the RRC connection request , wherein the type is determined based on core network type information, indicating the type, stored in or in association with a retrieved context for the wireless device . transmitting , to a radio network node , a radio resource control, RRC, connection request that requests resumption of an RRC connection and that indicates a type of core network to which the wireless device selects to connect, wherein the transmitting of the RRC connection request is without integrity protection and/or confidentiality protection, and receiving a response to the RRC connection request that is integrity protected and/or confidentiality protected according to a security algorithm that depends on a type of core network indicated by the RRC connection request , wherein the type is determined based on core network type information, indicating the type, stored in or in association with a retrieved context for the wireless device .
Method for manufacturing a part layer-upon-layer using Additive Manufacturing technology, the method comprising the following steps: - printing the part together with an elastomeric enclosure shaped thereto leaving a gap free of material therebetween, the elastomeric enclosure comprising at least one opening (2.1); - heating the ensemble of the printed part and elastomeric enclosure or keeping an operating printing temperature; - applying vacuum by the at least one opening (2.1) of the elastomeric enclosure so that the elastomeric enclosure deflates thus exerting pressure to the printed part ; and - maintaining the printed part under vacuum and heat during a predefined time. - printing the part together with an elastomeric enclosure shaped thereto leaving a gap free of material therebetween, the elastomeric enclosure comprising at least one opening (2.1); - heating the ensemble of the printed part and elastomeric enclosure or keeping an operating printing temperature; - applying vacuum by the at least one opening (2.1) of the elastomeric enclosure so that the elastomeric enclosure deflates thus exerting pressure to the printed part ; and - maintaining the printed part under vacuum and heat during a predefined time.