mhurhangee/patent-ind-claim-en huggingface dataset:
A motor vehicle differential comprising a casing and a substantially axial differential mechanism , which is carried in the casing by two opposite bearings and which comprises at least one ring gear adjoining a cage of planet pinions the said housing comprising, on the one hand, a first half-casing which comprises a first bearing and which is capable of housing the cage of pinions and at least part of the ring gear , and, on the other hand, a second half-casing which comprises a second bearing and which is capable of closing the first half-casing the first half-casing comprising at least one housing able to house the cage of pinions and a bell , into which said housing opens, which houses at least part of the ring gear , and which comprises at least one main transverse wall adjacent to a transverse face of the ring gear wherein the first half housing includes: - a means for recovering the oil sprayed onto the wall by the ring gear which comprises a first recess which opens into the main wall and which comprises two axial radial walls , a transverse radial wall , and two inner and outer tangential walls which delimit an oil reservoir, and - means for redirecting the recovered oil to the cage of planet gears , characterized in that the means for redirecting the recovered oil comprises a second recess adjoining the first recess , communicating with said first recess , which comprises a slot facing the cage of planet gears . the said housing comprising, on the one hand, a first half-casing which comprises a first bearing and which is capable of housing the cage of pinions and at least part of the ring gear , and, on the other hand, a second half-casing which comprises a second bearing and which is capable of closing the first half-casing the first half-casing comprising at least one housing able to house the cage of pinions and a bell , into which said housing opens, which houses at least part of the ring gear , and which comprises at least one main transverse wall adjacent to a transverse face of the ring gear wherein the first half housing includes: - a means for recovering the oil sprayed onto the wall by the ring gear which comprises a first recess which opens into the main wall and which comprises two axial radial walls , a transverse radial wall , and two inner and outer tangential walls which delimit an oil reservoir, and - means for redirecting the recovered oil to the cage of planet gears , - a means for recovering the oil sprayed onto the wall by the ring gear which comprises a first recess which opens into the main wall and which comprises two axial radial walls , a transverse radial wall , and two inner and outer tangential walls which delimit an oil reservoir, and - means for redirecting the recovered oil to the cage of planet gears , characterized in that the means for redirecting the recovered oil comprises a second recess adjoining the first recess , communicating with said first recess , which comprises a slot facing the cage of planet gears .
An aircraft component locating tool for locating an aircraft component during assembly of an aircraft comprising: first , second and third stacked plates; the first stacked plate being configured to mount on a support ; a first plate adjustment arrangement configured to act on the first stacked plate to adjust the position of the first stacked plate relative to the support along a first one degree of freedom; a first plate locking arrangement configured to selectively lock the first stacked plate in a position on the support; a second plate adjustment arrangement configured to act on the second stacked plate to adjust the position of the second stacked plate on the first stacked plate along a second one degree of freedom; and a second plate locking arrangement configured to selectively lock the second stacked plate in a position on the first stacked plate; a third plate adjustment arrangement configured to act on the third stacked plate to adjust the position of the third stacked plate on the second stacked plate along a third one degree of freedom; a third plate locking arrangement configured to selectively lock the third stacked plate in a position on the second stacked plate; and an interface arrangement configured to mount with an aircraft component, the interface arrangement being configured to move with the third stacked plate relative to the first and second stacked plates. first , second and third stacked plates; the first stacked plate being configured to mount on a support ; a first plate adjustment arrangement configured to act on the first stacked plate to adjust the position of the first stacked plate relative to the support along a first one degree of freedom; a first plate locking arrangement configured to selectively lock the first stacked plate in a position on the support; a second plate adjustment arrangement configured to act on the second stacked plate to adjust the position of the second stacked plate on the first stacked plate along a second one degree of freedom; and a second plate locking arrangement configured to selectively lock the second stacked plate in a position on the first stacked plate; a third plate adjustment arrangement configured to act on the third stacked plate to adjust the position of the third stacked plate on the second stacked plate along a third one degree of freedom; a third plate locking arrangement configured to selectively lock the third stacked plate in a position on the second stacked plate; and an interface arrangement configured to mount with an aircraft component, the interface arrangement being configured to move with the third stacked plate relative to the first and second stacked plates.
System for generating temperatures of 2000 °C to 2500 °C to cause decomposition reactions of gas, such as for example the decomposition of water into hydrogen and oxygen, in a chemical reaction body that is supplied with energy by using densified sunlight, - wherein the reaction body is provided to absorb light energy through its outer surface and comprises a porous material and a selected gas is decomposed in the reaction body into at least two components, one of them, for example hydrogen, passes by diffusion into a hollow space from which it can be pumped out, the system comprising: - supply pipe and discharge pipe for suppling or discharging gas into or out from the reaction body, - heat exchangers that make possible a heat transfer of inflowing and outflowing gas with as little loss as possible in the temperature range above 1000°C, - heat shields that enclose the reaction body and the heat exchangers at a suitable distance and that reflect as much as possible the heat radiation emitted by them, - cooling systems for the heat shields with several interlocking pipe systems that are alternately evacuated or flowed through by different cooling agents, - a container that surrounds the reactor body, the heat exchangers and the heat shields and is evacuated with the aim to limit the energy losses of the system to minimized radiation losses as well as - a great number of light sources that direct focused light energy through windows in the wall of the container and through openings in the heat shields to the reactor body so that the reaction body is heated up as uniformly as possible, characterized in that glass fiber cables that guide the light energy to the light sources are provided. - wherein the reaction body is provided to absorb light energy through its outer surface and comprises a porous material and a selected gas is decomposed in the reaction body into at least two components, one of them, for example hydrogen, passes by diffusion into a hollow space from which it can be pumped out, - supply pipe and discharge pipe for suppling or discharging gas into or out from the reaction body, - heat exchangers that make possible a heat transfer of inflowing and outflowing gas with as little loss as possible in the temperature range above 1000°C, - heat shields that enclose the reaction body and the heat exchangers at a suitable distance and that reflect as much as possible the heat radiation emitted by them, - cooling systems for the heat shields with several interlocking pipe systems that are alternately evacuated or flowed through by different cooling agents, - a container that surrounds the reactor body, the heat exchangers and the heat shields and is evacuated with the aim to limit the energy losses of the system to minimized radiation losses as well as - a great number of light sources that direct focused light energy through windows in the wall of the container and through openings in the heat shields to the reactor body so that the reaction body is heated up as uniformly as possible,
A crucible device comprising a crucible body configured to store evaporation material, an opening being disposed on the crucible body ; a crucible cover which matches the opening of the crucible body and which forms a hermetic space in cooperation with the crucible body when being in a closed state and opens the opening of the crucible body when being in an open state, characterized in that the crucible device further comprises a driving mechanism comprising a housing with a cavity therein and a piston disposed within the cavity, the cavity being divided by the piston into a closed chamber and an open chamber , the open chamber being in communication with outside of the chamber body through a cavity opening of the cavity , the closed chamber storing gas therein, the piston being connected with the crucible cover by a transmission mechanism , the piston being moved within the cavity in accordance with change of pressure in the open chamber , thereby driving the crucible cover to switch between the open state and the closed state. a crucible body configured to store evaporation material, an opening being disposed on the crucible body ; a crucible cover which matches the opening of the crucible body and which forms a hermetic space in cooperation with the crucible body when being in a closed state and opens the opening of the crucible body when being in an open state, characterized in that the crucible device further comprises a driving mechanism comprising a housing with a cavity therein and a piston disposed within the cavity, the cavity being divided by the piston into a closed chamber and an open chamber , the open chamber being in communication with outside of the chamber body through a cavity opening of the cavity , the closed chamber storing gas therein, the piston being connected with the crucible cover by a transmission mechanism , the piston being moved within the cavity in accordance with change of pressure in the open chamber , thereby driving the crucible cover to switch between the open state and the closed state.
A secondary battery comprising: a case ; an electrode assembly accommodated inside the case and having multi-tabs ; and a cap plate closing the case and having electrode terminals electrically connected to the multi-tabs of the electrode assembly , wherein the surfaces of the multi-tabs are coated with insulating layers , wherein the electrode assembly comprises: a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate ; a separator positioned at one side of the first electrode plate ; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate , wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate , characterized in that , the insulating layers are spaced apart from the first electrically active material layer . a case ; an electrode assembly accommodated inside the case and having multi-tabs ; and a cap plate closing the case and having electrode terminals electrically connected to the multi-tabs of the electrode assembly , wherein the surfaces of the multi-tabs are coated with insulating layers , wherein the electrode assembly comprises: a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate ; a separator positioned at one side of the first electrode plate ; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate , wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate , characterized in that , the insulating layers are spaced apart from the first electrically active material layer . a first electrode plate including a first current collector plate and a first electrically active material layer coated on the first current collector plate ; a separator positioned at one side of the first electrode plate ; and a second electrode plate including a second current collector plate positioned at one side of the separator and a second electrically active material layer coated on the second current collector plate , wherein the multi-tabs have a structure in which the first current collector plate is upwardly extended to an exterior side of the first electrically active material layer of the first electrode plate , characterized in that , the insulating layers are spaced apart from the first electrically active material layer .
A method for performing a remote management of a multi-subscription SIM module , said multi-subscription SIM module comprising at least one memory adapted to store a first (P1) and a second (P2) profile associated with a respective first (MNO1) and a second (MNO2) mobile network operator, such that respective profile data (APP, AUTH, OTA, FS) may be associated with each profile (P1, P2), wherein said multi-subscription SIM module is an UICC or embedded UICC, the method comprising performing the following steps within said multi-subscription SIM module : - receiving a remote management message from a remote host , wherein said remote management message comprises: a) a remote management command, and b) a sender address and/or a destination address (PN1; PN2; IP1; IP2); - processing said remote management message in order to determine said sender address and/or said destination address (PN1; PN2; IP1; IP2); - determining a target profile (P1; P2) of said remote management command as a function of said sender address and/or said destination address (PN1; PN2; IP1; IP2); and - executing said remote management command in order to interact with the profile data of said target profile (P1; P2). - receiving a remote management message from a remote host , wherein said remote management message comprises: a) a remote management command, and b) a sender address and/or a destination address (PN1; PN2; IP1; IP2); a) a remote management command, and b) a sender address and/or a destination address (PN1; PN2; IP1; IP2); - processing said remote management message in order to determine said sender address and/or said destination address (PN1; PN2; IP1; IP2); - determining a target profile (P1; P2) of said remote management command as a function of said sender address and/or said destination address (PN1; PN2; IP1; IP2); and - executing said remote management command in order to interact with the profile data of said target profile (P1; P2).
A filter paper pod for a beverage preparation machine comprising a composition for making a coffee beverage, the composition comprising: roast and ground coffee having a X50 of from 700 to 1250 μm; and a milk powder with a X50 of from 1 mm to 3 mm; wherein the ratio by weight of the roast and ground coffee to the milk powder is from 4:1 to 2:3; and wherein the roast and ground coffee has a colour of 4 to 10 La. roast and ground coffee having a X50 of from 700 to 1250 μm; and a milk powder with a X50 of from 1 mm to 3 mm; wherein the ratio by weight of the roast and ground coffee to the milk powder is from 4:1 to 2:3; and wherein the roast and ground coffee has a colour of 4 to 10 La.
Two-layer, luminescent road marking or ground coating having a lower, first layer which is a cured 2-pack (meth)acrylate-based reactive resin formulation containing, prior to curing, in one or in both packs, at least 0.5% by weight of crosslinker, at least 10% by weight of (meth)acrylate monomers, at least 3% by weight of prepolymers and optionally further additives, characterized in that the second, upper layer is a cured reactive resin seal composed of up to 50% by weight of luminophores, pigments, fillers and/or additives and of at least 50% by weight of a cured (meth)acrylate resin consisting in turn to an extent of at least 50% by weight of repeat units based on (meth)acrylates and having a glass transition temperature T g of at least 60°C.
Computer-implemented method for providing an operator with guidance to a pathological vessel comprising the steps of: generating a vessel roadmap library , the vessel roadmap library including a plurality of vessel roadmaps , wherein each vessel roadmap comprises a vessel roadmap image and first and second alignment data ; detecting , within the vessel roadmap images of the vessel roadmap library , a pathological vessel; obtaining a real-time fluoroscopy image and corresponding real-time first fluoroscopy information and real-time second fluoroscopy information ; selecting a vessel roadmap from the roadmap library based on comparing the real-time first fluoroscopy information with the first alignment data of each vessel roadmap of the roadmap library ; overlaying the real-time fluoroscopy image with the selected vessel roadmap image of the vessel roadmap library ; aligning the vessel roadmap image of the selected vessel roadmap and the real-time fluoroscopy image based on the second alignment data and the real-time second fluoroscopy information; and providing an operator with guidance for a fluoroscopy object to the pathological vessel based on the selected vessel roadmap and the real-time second fluoroscopy information. generating a vessel roadmap library , the vessel roadmap library including a plurality of vessel roadmaps , wherein each vessel roadmap comprises a vessel roadmap image and first and second alignment data ; detecting , within the vessel roadmap images of the vessel roadmap library , a pathological vessel; obtaining a real-time fluoroscopy image and corresponding real-time first fluoroscopy information and real-time second fluoroscopy information ; selecting a vessel roadmap from the roadmap library based on comparing the real-time first fluoroscopy information with the first alignment data of each vessel roadmap of the roadmap library ; overlaying the real-time fluoroscopy image with the selected vessel roadmap image of the vessel roadmap library ; aligning the vessel roadmap image of the selected vessel roadmap and the real-time fluoroscopy image based on the second alignment data and the real-time second fluoroscopy information; and providing an operator with guidance for a fluoroscopy object to the pathological vessel based on the selected vessel roadmap and the real-time second fluoroscopy information.
A composition comprising: (A) an ethylene/alpha-olefin/diene interpolymer; (B) an isocyanate comprising at least two isocyanate groups; (C) a TEMPO compound having the Structure I wherein R 1 , R 2 , R 3 and R 4 are each independently selected from H and C 1 -C 6 alkyl groups and X is a functional group selected from the group consisting of OH and NH 2 ; and (D) a peroxide; wherein the molar ratio of isocyanate groups of Component (B) to the functional groups of Component (C) is from 0.80 to 1.10. (A) an ethylene/alpha-olefin/diene interpolymer; (B) an isocyanate comprising at least two isocyanate groups; (C) a TEMPO compound having the Structure I wherein R 1 , R 2 , R 3 and R 4 are each independently selected from H and C 1 -C 6 alkyl groups and X is a functional group selected from the group consisting of OH and NH 2 ; and (D) a peroxide; wherein the molar ratio of isocyanate groups of Component (B) to the functional groups of Component (C) is from 0.80 to 1.10.
A method of operating a combustion burner to heat a furnace comprising: supplying fuel and combustion air into a combustion zone where it is ignited; and supplying additional combustion air into the atmosphere outside of the combustion zone, characterized in that the amount of additional combustion air supplied outside of the combustion zone is decreased as a temperature of the atmosphere inside the furnace increases such that the content of nitrogen oxides (NOx), as corrected for 3% O 2 (cNOx (3%O 2 )), in the gases generated by combustion of the fuel and the combustion air and emitted from the furnace is maintained below a predetermined value. supplying fuel and combustion air into a combustion zone where it is ignited; and supplying additional combustion air into the atmosphere outside of the combustion zone, characterized in that the amount of additional combustion air supplied outside of the combustion zone is decreased as a temperature of the atmosphere inside the furnace increases such that the content of nitrogen oxides (NOx), as corrected for 3% O 2 (cNOx (3%O 2 )), in the gases generated by combustion of the fuel and the combustion air and emitted from the furnace is maintained below a predetermined value.
A method of cleaning a region in an industrial environment using at least one industrial robot (12; 12a-12g), the method comprising: - obtaining radiation from the region by means of a sensor device (26; 26a, 26b); - providing sensor data based on the radiation , the sensor data being indicative of a cleanliness of one or more surfaces (60a-60c) in the region ; and - performing a cleaning process to clean the region , the cleaning process comprising applying cleaning media from a cleaning device to the one or more surfaces (60a-60c), and the cleaning process being performed based on the sensor data , wherein the industrial robot (12, 12a-12g) carries the sensor device (26; 26a, 26b) and/or the cleaning device . - obtaining radiation from the region by means of a sensor device (26; 26a, 26b); - providing sensor data based on the radiation , the sensor data being indicative of a cleanliness of one or more surfaces (60a-60c) in the region ; and - performing a cleaning process to clean the region , the cleaning process comprising applying cleaning media from a cleaning device to the one or more surfaces (60a-60c), and the cleaning process being performed based on the sensor data ,
A desulfurization processing method of molten steel, comprising: adding a desulfurization agent containing quicklime into a ladle holding the molten steel tapped from a converter; and stirring the molten steel in the ladle to reduce a sulfur concentration in the molten steel, wherein the desulfurization agent contains quicklime, where a sum of volumes of pores having a pore diameter ranging from 0.5 μm to 10 μm, inclusive of 0.5 μm and 10 μm, in the quicklime is equal to or larger than 0.1 mL/g; the quicklime contains particles, where 90% or more of the particles contained in the quicklime has a particle diameter ranging from 1 mm to 30 mm, inclusive of 1 mm and 30 mm; and the sum of volumes of pores is obtained as described in the description. adding a desulfurization agent containing quicklime into a ladle holding the molten steel tapped from a converter; and stirring the molten steel in the ladle to reduce a sulfur concentration in the molten steel, wherein the desulfurization agent contains quicklime, where a sum of volumes of pores having a pore diameter ranging from 0.5 μm to 10 μm, inclusive of 0.5 μm and 10 μm, in the quicklime is equal to or larger than 0.1 mL/g; the quicklime contains particles, where 90% or more of the particles contained in the quicklime has a particle diameter ranging from 1 mm to 30 mm, inclusive of 1 mm and 30 mm; and the sum of volumes of pores is obtained as described in the description.