mhurhangee/ep-ind-claims huggingface dataset:
An annular elastomeric packer (300, 410, 450, 520, 540, 560) for a blowout preventer, comprising: a plurality of circumferentially spaced inserts (302, 420, 452, 482, 500, 522, 580), wherein each of the plurality of inserts comprises a rib (320, 523, 584), and a foot (340, 422, 524) pivotably coupled to the rib (320, 523, 584), and wherein each insert (302, 420, 452, 482, 500, 522, 580) further comprises a link (330, 484)) having a first end pivotably coupled to the rib (320, 523, 584) and a second end, opposite the first 10 end, pivotably coupled to the foot (340, 422, 524) whereby the foot (340, 422, 524) is pivotably coupled to the rib (320, 523, and 584) through the link (330, 484); and an elastomeric body (350, 530, 550) coupled to the plurality of inserts (302, 420, 452, 482, 500, 522, 580) and comprising an inner surface; wherein the foot (340, 422, 524) is configured to resist deformation of the elastomeric body (350, 530, 550) in 15 response to the blowout preventer actuating from a first position to a second position. a plurality of circumferentially spaced inserts (302, 420, 452, 482, 500, 522, 580), wherein each of the plurality of inserts comprises a rib (320, 523, 584), and a foot (340, 422, 524) pivotably coupled to the rib (320, 523, 584), and wherein each insert (302, 420, 452, 482, 500, 522, 580) further comprises a link (330, 484)) having a first end pivotably coupled to the rib (320, 523, 584) and a second end, opposite the first 10 end, pivotably coupled to the foot (340, 422, 524) whereby the foot (340, 422, 524) is pivotably coupled to the rib (320, 523, and 584) through the link (330, 484); and an elastomeric body (350, 530, 550) coupled to the plurality of inserts (302, 420, 452, 482, 500, 522, 580) and comprising an inner surface; wherein the foot (340, 422, 524) is configured to resist deformation of the elastomeric body (350, 530, 550) in 15 response to the blowout preventer actuating from a first position to a second position.
Method for the manufacture of porous layers in a silicon substrate, comprising the following steps: • Providing a silicon substrate comprising at least one surface, said substrate serving as a cathode, • Providing an anode, • Applying a first solution comprising F - ions, wherein the concentration of the F - is comprised between 10% and 40%, suitable for removing material from said substrate, between said surface and said anode, • Applying a predetermined current between said anode and said cathode, this current being higher than 50 mA/cm 2, and • Maintaining said solution and said current for a sufficient amount of time depending on the concentration of F - and the value of the current in order to obtain a porosity gradient wherein a low porosity layer is positioned at said surface and a high porosity layer is positioned under said low porosity layer, further comprising maintaining said solution and said current a further amount of time in order to obtain lift-off of said low porosity layer and a part of said high-porosity layer from said substrate. • Providing a silicon substrate comprising at least one surface, said substrate serving as a cathode, • Providing an anode, • Applying a first solution comprising F - ions, wherein the concentration of the F - is comprised between 10% and 40%, suitable for removing material from said substrate, between said surface and said anode, • Applying a predetermined current between said anode and said cathode, this current being higher than 50 mA/cm 2, and • Maintaining said solution and said current for a sufficient amount of time depending on the concentration of F - and the value of the current in order to obtain a porosity gradient wherein a low porosity layer is positioned at said surface and a high porosity layer is positioned under said low porosity layer,
Aircraft jet engine, comprising a wall centred about a longitudinal axis (XX') and surrounding a gas stream which is ejected at a downstream end of the wall in the direction of the axis, a plurality of pairs of ducts termed primary ducts (80a, 80b) distributed at the periphery of the downstream end of the wall each being able to eject on command a primary fluid jet intended to interact with the ejected gas stream, the primary ducts (80a, 80b) of each pair converging towards one another in the vicinity of the downstream end of the wall in such a way that the ejected primary jets form the two sides of a triangle which meet at the vertex thereof when viewed in projection in a plane perpendicular to a transverse plane, said transverse plane being perpendicular to the longitudinal axis (XX'), a plurality of pairs of ducts termed secondary ducts (80c, 80d, 80e and 80f, 80g, 80h) being associated with each pair of primary ducts, each secondary duct being able to eject on command a secondary fluid jet directed, in said projection view, into the triangle formed by the primary jets, the secondary ducts of one and the same pair being arranged symmetrically to one another with respect to said height of the triangle, in said projection view, and each primary duct (80a and 80b) being associated with one of the secondary ducts of each of the pairs, characterized in that the secondary ducts associated with one and the same primary duct are arranged side by side and oriented parallel to the associated primary duct.
A system comprising a main electrical unit (2; 102) and a peripheral electrical unit (3, 4, 5; 103, 104, 105), wherein the main electrical unit (2; 102) is a control unit adapted to initially control the system, wherein the peripheral electrical unit (3, 4, 5; 103, 104, 105) is adapted for being initially controlled by the main electrical unit (2; 102), wherein the main electrical unit (2; 102) and the peripheral electrical unit (3, 4, 5; 103, 104, 105) are switchable between a low-power mode and a high-power mode, wherein the main electrical unit (2; 102) is adapted to hand over the control of the system to the peripheral electrical unit (3, 4, 5; 103, 104, 105), if the peripheral electrical unit (3, 4, 5; 103, 104, 105) is in the high-power mode, and to switch from the high-power mode to the low-power mode, after the control has been handed over, wherein the peripheral electrical unit (3, 4, 5; 103, 104, 105) is adapted to receive the control from the main electrical unit (2; 102) and to control the system, if the peripheral electrical unit (3, 4, 5; 103, 104, 105) is in the high-power mode.
An endoluminal prosthesis comprising: a stent graft comprising a tubular graft wall, a stent, a main strand, a proximal strand, and a distal strand; wherein the tubular graft wall defines an internal lumen of the stent graft and comprises a first surface and a second surface; wherein the stent is positioned on the first surface of the tubular graft wall and comprises at least two proximal apices and at least three distal apices; wherein the proximal strand is positioned on at least the first surface of the tubular graft wall and coupled or connected to the two proximal apices of the stent; wherein the distal strand is positioned on at least the first surface of the tubular graft wall and connected to two of the three distal apices of the stent; and wherein the main strand is positioned along one of the first and second surfaces of the tubular graft wall and connected to the proximal strand and the distal strand on one of the first and second surfaces of the tubular graft wall, whereby, after expansion of the endoluminal prosthesis, a distal movement of the main strand pulls the proximal apices toward each other and the distal apices toward each other to decrease the diameter of the stent graft. a stent graft comprising a tubular graft wall, a stent, a main strand, a proximal strand, and a distal strand; wherein the tubular graft wall defines an internal lumen of the stent graft and comprises a first surface and a second surface; wherein the stent is positioned on the first surface of the tubular graft wall and comprises at least two proximal apices and at least three distal apices; wherein the proximal strand is positioned on at least the first surface of the tubular graft wall and coupled or connected to the two proximal apices of the stent; wherein the distal strand is positioned on at least the first surface of the tubular graft wall and connected to two of the three distal apices of the stent; and wherein the main strand is positioned along one of the first and second surfaces of the tubular graft wall and connected to the proximal strand and the distal strand on one of the first and second surfaces of the tubular graft wall, whereby, after expansion of the endoluminal prosthesis, a distal movement of the main strand pulls the proximal apices toward each other and the distal apices toward each other to decrease the diameter of the stent graft.
A method for providing secured access in a network environment, comprising: receiving a request for secured access to a content site within an enterprise network from a user; authenticating the user; and providing secured access by the user to the content site upon confirmation of authentication, characterised by: responsive to the received request, forwarding the user to a home site associated with a third-party that manages a primary profile for the user, to obtain a third-party security token after authentication at the home site; receiving (108;112) the third-party security token issued by a third-party that is administered separately from the enterprise network and presented to the enterprise network by the user, wherein the third-party security token includes information about the authentication act at the home site and information from the primary profile; and authenticating the user using the received third-party security token and linking the authenticated user to a secondary profile hosted at the content site, wherein secured access to the content site is enforced by a security policy associated with the secondary profile. receiving a request for secured access to a content site within an enterprise network from a user; authenticating the user; and providing secured access by the user to the content site upon confirmation of authentication, responsive to the received request, forwarding the user to a home site associated with a third-party that manages a primary profile for the user, to obtain a third-party security token after authentication at the home site; receiving (108;112) the third-party security token issued by a third-party that is administered separately from the enterprise network and presented to the enterprise network by the user, wherein the third-party security token includes information about the authentication act at the home site and information from the primary profile; and authenticating the user using the received third-party security token and linking the authenticated user to a secondary profile hosted at the content site, wherein secured access to the content site is enforced by a security policy associated with the secondary profile.
A food steamer, comprising: a base; a cooking container receivable by said base; a lid receivable atop said cooking container; a boiler housed within the base; a steam flow pathway extending from said boiler to said lid for directing steam generated by said boiler into the top of said container through said lid; a condensing chamber included in said steam flow pathway intermediate said boiler and said lid; and a control unit configured to control operation of said food steamer in response to a user input; wherein said control unit is configured to automatically deactivate said boiler when said lid is removed from said cooking container. a base; a cooking container receivable by said base; a lid receivable atop said cooking container; a boiler housed within the base; a steam flow pathway extending from said boiler to said lid for directing steam generated by said boiler into the top of said container through said lid; a condensing chamber included in said steam flow pathway intermediate said boiler and said lid; and a control unit configured to control operation of said food steamer in response to a user input; wherein said control unit is configured to automatically deactivate said boiler when said lid is removed from said cooking container.
Method for the preparation of a cooling composition in the form of a granulate, characterized in that a cooling composition is encapsulated in a spray granulation process, wherein the cooling composition is a composition consisting of 8 to 10 wt. % cooling active selected from the group consisting of menthone glyceryl acetal (FEMA GRAS 3807), menthone glyceryl ketal (FEMA GRAS 3808), menthol lactate (FEMA GRAS 3748), menthol ethylene glycol carbonate (FEMA GRAS 3805), menthol propylene glycol carbonate (FEMA GRAS 3806), menthol N-ethyloxamate, monomethyl succinate (FEMA GRAS 3810), monomenthyl glutamate (FEMA GRAS 4006), menthoxy-1,2-propanediol (FEMA GRAS 3784), menthoxy-2-methyl-1,2-propanediol (FEMA GRAS 3849) and the menthanecarboxylic acid esters and amides WS-3, WS-4, WS-5, WS-12, WS-14, WS-23 and WS-30, or acyclic carboxamides of the formula wherein R' and R" independently of another may be hydrogen, or a hydroxyl group or a branched, unbranched, cyclic alkyl radical having up to 25 carbon atoms, an aryl group having up to 10 carbon atoms selected from substituted and unsubstituted phenyl, phenylalkyl, naphthyl and pyridyl radicals, or mixtures thereof, and at least 15 % by weight alcohol selected from the group consisting of a C1 to C3 alcohol or mixtures thereof, and at least 60 % by weight hydrophobic compound selected from the group consisting of essential oils, neutral oils, vegetable oils or mixtures thereof, wherein the cooling agent is completely dissolved in and in an upstream step to form a homogeneous mixture, wherein the temperature is being maintained at 40°C to 100°C for complete dissolution of, and in the further spray granulation process, the temperature is maintained at 35°C to 65°C to prevent recrystallization of, wherein the granule particles of the cooling composition obtained from the spray granulation in the form of a granule have an average particle size of 0.3 mm to 0.9 mm. 8 to 10 wt. % cooling active selected from the group consisting of menthone glyceryl acetal (FEMA GRAS 3807), menthone glyceryl ketal (FEMA GRAS 3808), menthol lactate (FEMA GRAS 3748), menthol ethylene glycol carbonate (FEMA GRAS 3805), menthol propylene glycol carbonate (FEMA GRAS 3806), menthol N-ethyloxamate, monomethyl succinate (FEMA GRAS 3810), monomenthyl glutamate (FEMA GRAS 4006), menthoxy-1,2-propanediol (FEMA GRAS 3784), menthoxy-2-methyl-1,2-propanediol (FEMA GRAS 3849) and the menthanecarboxylic acid esters and amides WS-3, WS-4, WS-5, WS-12, WS-14, WS-23 and WS-30, or acyclic carboxamides of the formula wherein R' and R" independently of another may be hydrogen, or a hydroxyl group or a branched, unbranched, cyclic alkyl radical having up to 25 carbon atoms, an aryl group having up to 10 carbon atoms selected from substituted and unsubstituted phenyl, phenylalkyl, naphthyl and pyridyl radicals, or mixtures thereof, and at least 15 % by weight alcohol selected from the group consisting of a C1 to C3 alcohol or mixtures thereof, and at least 60 % by weight hydrophobic compound selected from the group consisting of essential oils, neutral oils, vegetable oils or mixtures thereof,
A method for synthesis of combined heat and power utility and key process systems for a process facility or cluster of process facilities, the method being characterized by the steps of: defining or receiving a plurality of rigorously bounded process variables for a process facility comprising one or more key process systems as decision variables to thereby form model input data for a combined heat and power utility and process subsystem mathematical program model, the decision variables comprising: a process steam demand interval for each of a plurality of different steam pressure levels, each interval describing upper and lower bounds of the respective decision variable; processing the model input data through application of the combined heat and power utility and process subsystem mathematical program model, the combined heat and power utility and process subsystem mathematical program model including a cost function configured to minimize total cost of both combined heat and power utility subsystems and the process subsystems of the key process systems for the process facility; and determining a plurality of at least substantially optimal process subsystem and utility subsystem conditions, defining model output, the process subsystem conditions comprising a process steam demand load value for each of the plurality of different steam pressure levels, and the utility subsystem conditions comprising utility subsystem steam generation and allocation values. defining or receiving a plurality of rigorously bounded process variables for a process facility comprising one or more key process systems as decision variables to thereby form model input data for a combined heat and power utility and process subsystem mathematical program model, the decision variables comprising: a process steam demand interval for each of a plurality of different steam pressure levels, each interval describing upper and lower bounds of the respective decision variable; a process steam demand interval for each of a plurality of different steam pressure levels, each interval describing upper and lower bounds of the respective decision variable; processing the model input data through application of the combined heat and power utility and process subsystem mathematical program model, the combined heat and power utility and process subsystem mathematical program model including a cost function configured to minimize total cost of both combined heat and power utility subsystems and the process subsystems of the key process systems for the process facility; and determining a plurality of at least substantially optimal process subsystem and utility subsystem conditions, defining model output, the process subsystem conditions comprising a process steam demand load value for each of the plurality of different steam pressure levels, and the utility subsystem conditions comprising utility subsystem steam generation and allocation values. the process subsystem conditions comprising a process steam demand load value for each of the plurality of different steam pressure levels, and the utility subsystem conditions comprising utility subsystem steam generation and allocation values.
A system comprising: a first array of radiating elements; a second array of radiating elements; a beamforming module coupled to the first array of radiating elements and to the second array of radiating elements, the first array of radiating elements being configured to provide wireless coverage on a first frequency carrier in a first coverage area, and the second array of radiating elements being configured to provide wireless coverage on a second frequency carrier in a second coverage area, where the first frequency carrier does not overlap the second frequency carrier, the beamforming module configured to: receive one or more indicators associated with one or more user equipments, UEs, in at least one of the first coverage area or the second coverage area; analyze the one or more indicators in a radio frequency, RF, domain or an intermediate frequency, IF, domain; and based on said analysis of the one or more indicators, dynamically adjusting in the RF domain at least one of a location of the first or second coverage area, or a size of the first or second coverage area. a first array of radiating elements; a second array of radiating elements; a beamforming module coupled to the first array of radiating elements and to the second array of radiating elements, the first array of radiating elements being configured to provide wireless coverage on a first frequency carrier in a first coverage area, and the second array of radiating elements being configured to provide wireless coverage on a second frequency carrier in a second coverage area, where the first frequency carrier does not overlap the second frequency carrier, the beamforming module configured to: receive one or more indicators associated with one or more user equipments, UEs, in at least one of the first coverage area or the second coverage area; analyze the one or more indicators in a radio frequency, RF, domain or an intermediate frequency, IF, domain; and based on said analysis of the one or more indicators, dynamically adjusting in the RF domain at least one of a location of the first or second coverage area, or a size of the first or second coverage area. receive one or more indicators associated with one or more user equipments, UEs, in at least one of the first coverage area or the second coverage area; analyze the one or more indicators in a radio frequency, RF, domain or an intermediate frequency, IF, domain; and based on said analysis of the one or more indicators, dynamically adjusting in the RF domain at least one of a location of the first or second coverage area, or a size of the first or second coverage area.
Braking device for a vehicle such as, for example, a walking frame, a stroller or a disabled wheelchair, comprising: - a hand grip extending along an extension axis (X-X) adapted to be rotatably mounted on a handlebar of a vehicle; - a slide operatively combined with a cable of a vehicle brake or lock; - said slide being translatable between a locked position tensioning said cable and an unlocked position leaving loose the cable, and vice versa; - at least one pin element engaged with a profile; said pin element being designed to slide with respect to said profile to activate the translation of said slide; said pin element sliding with respect to said profile between a first position, in which said slide is in the unlocked position, and a second position, in which said slide is in the locked position, and vice versa; - said at least one pin element or said profile being integral with said hand grip so that the rotation of the hand grip activates the translation of said slide; characterized in that said slide being translatable orthogonally to the extension axis (X-X) of said hand grip. - a hand grip extending along an extension axis (X-X) adapted to be rotatably mounted on a handlebar of a vehicle; - a slide operatively combined with a cable of a vehicle brake or lock; - said slide being translatable between a locked position tensioning said cable and an unlocked position leaving loose the cable, and vice versa; - at least one pin element engaged with a profile; said pin element being designed to slide with respect to said profile to activate the translation of said slide; said pin element sliding with respect to said profile between a first position, in which said slide is in the unlocked position, and a second position, in which said slide is in the locked position, and vice versa; - said at least one pin element or said profile being integral with said hand grip so that the rotation of the hand grip activates the translation of said slide;