mhurhangee/ep-ind-claims huggingface dataset:
A method using shared configuration information to manage network access for externally generated communications, the method being characterized in that it comprises an access point to the private network: accessing association information for a first end user of a private network; accessing configuration information for a first endpoint associated with the first end user; receiving an externally generated communication, the communication addressed for delivery to a second endpoint associated with a second end user of the private network; using the association information to determine an association between the first end user and the second end user; and using the configuration information for the first endpoint to configure the access point to allow the communication to be delivered to the second endpoint, based on the association between the first end user and the second end user, wherein: the association information for the first end user comprises a list of one or more trusted end users associated with the first end user; and using the association information to determine the association between the first end user and the second end user comprises determining that the second end user is one of the one or more trusted end users on the list, and wherein using the configuration information for the first end user comprises opening one or more pinholes in a firewall. accessing association information for a first end user of a private network; accessing configuration information for a first endpoint associated with the first end user; receiving an externally generated communication, the communication addressed for delivery to a second endpoint associated with a second end user of the private network; using the association information to determine an association between the first end user and the second end user; and using the configuration information for the first endpoint to configure the access point to allow the communication to be delivered to the second endpoint, based on the association between the first end user and the second end user, wherein: the association information for the first end user comprises a list of one or more trusted end users associated with the first end user; and using the association information to determine the association between the first end user and the second end user comprises determining that the second end user is one of the one or more trusted end users on the list, and the association information for the first end user comprises a list of one or more trusted end users associated with the first end user; and using the association information to determine the association between the first end user and the second end user comprises determining that the second end user is one of the one or more trusted end users on the list, and wherein using the configuration information for the first end user comprises opening one or more pinholes in a firewall.
An apparatus for detecting deformation of an elongate body, the apparatus comprising: a light source configured to provide light of multiple frequencies; an optical receiver configured to receive light from said light source; and a filter (30, 74, 76) disposed between said light source and said optical receiver, said filter (30, 74, 76) comprising multiple segments (36, 38, 40, 42), each of said segments (36, 38, 40, 42) configured to filter light at one of said frequencies so as to alter the amount of light incident on said optical receiver; wherein a total amount of light received by said optical receiver is indicative of deformation of the elongate body, wherein said light source is configured to provide light of different frequencies in a predetermined sequence. a light source configured to provide light of multiple frequencies; an optical receiver configured to receive light from said light source; and a filter (30, 74, 76) disposed between said light source and said optical receiver, said filter (30, 74, 76) comprising multiple segments (36, 38, 40, 42), each of said segments (36, 38, 40, 42) configured to filter light at one of said frequencies so as to alter the amount of light incident on said optical receiver; wherein a total amount of light received by said optical receiver is indicative of deformation of the elongate body, wherein said light source is configured to provide light of different frequencies in a predetermined sequence.
Edible pourable oil-in-water emulsion suitable for shallow frying comprising: • 40 to 90 wt. % liquid oil; • 5 to 55 wt. % of water; • 1 to 20 wt. % of plant sterol esters; • 0.05 to 5 wt. % of salt; • 0.01 to 3 wt. % of oil-in-water promoting emulsifier. • 40 to 90 wt. % liquid oil; • 5 to 55 wt. % of water; • 1 to 20 wt. % of plant sterol esters; • 0.05 to 5 wt. % of salt; • 0.01 to 3 wt. % of oil-in-water promoting emulsifier.
An apparatus comprising: (a) a compartment for holding a sterile medical device, wherein the compartment is further configured to maintain sterility within the compartment, wherein the compartment is further configured to maintain a hermetic seal; (b) at least one electrical coupling patch, wherein the at least one electrical coupling patch is integral with a wall of the compartment; (c) a charging circuit in communication with the at least one electrical coupling patch, wherein the charging circuit is operable to deliver power through the at least one coupling patch without compromising the sterility of the compartment; (d) a battery for use with a medical device, wherein the battery is contained within the compartment, wherein the battery is in electrical communication with the charging circuit, wherein the charging circuit is configured to deliver electrical power to the battery through the at least one electrical coupling patch without compromising the sterility of the compartment, characterised in that the apparatus further comprises: (e) an outwardly extending member, wherein the electrical coupling patch is disposed on the outwardly extending member; and (f) a wall presenting a charging slot, wherein the charging slot includes a conductive portion, wherein the outwardly extending member is configured to be inserted in the charging slot, placing the electrical coupling patch in communication with the conductive portion of the charging slot. (a) a compartment for holding a sterile medical device, wherein the compartment is further configured to maintain sterility within the compartment, wherein the compartment is further configured to maintain a hermetic seal; (b) at least one electrical coupling patch, wherein the at least one electrical coupling patch is integral with a wall of the compartment; (c) a charging circuit in communication with the at least one electrical coupling patch, wherein the charging circuit is operable to deliver power through the at least one coupling patch without compromising the sterility of the compartment; (d) a battery for use with a medical device, wherein the battery is contained within the compartment, wherein the battery is in electrical communication with the charging circuit, wherein the charging circuit is configured to deliver electrical power to the battery through the at least one electrical coupling patch without compromising the sterility of the compartment, characterised in that the apparatus further comprises: (e) an outwardly extending member, wherein the electrical coupling patch is disposed on the outwardly extending member; and (f) a wall presenting a charging slot, wherein the charging slot includes a conductive portion, wherein the outwardly extending member is configured to be inserted in the charging slot, placing the electrical coupling patch in communication with the conductive portion of the charging slot.
An input device comprising: an operation pad having an exterior plate having at least one light-emitting unit (E1, E2, E3, E4, E5), a touch sensor substrate attached to a rear surface of the exterior plate, and a back frame attached to the rear surface of the exterior plate and covering a rear surface of the touch sensor substrate, wherein the exterior plate and the back frame are integrally movable in a vertical direction; a plurality of light sources (S1, S2, S3, S4, S5) attached to the rear surface of the touch sensor substrate; and an optical path through which light of at least one of the plural light sources passes toward the at least one light-emitting unit, wherein the optical path is a light diffusion member (H1, H2, H3, H4, H5) or a light guide member (J1, J2, J3, J4, J5), characterized in that a plurality of light shielding walls (23b, 23c) are formed integrally with, and protrude from, the back frame toward the rear surface of the touch sensor substrate, and respectively surround respective ones of the plurality of light sources. an operation pad having an exterior plate having at least one light-emitting unit (E1, E2, E3, E4, E5), a touch sensor substrate attached to a rear surface of the exterior plate, and a back frame attached to the rear surface of the exterior plate and covering a rear surface of the touch sensor substrate, wherein the exterior plate and the back frame are integrally movable in a vertical direction; a plurality of light sources (S1, S2, S3, S4, S5) attached to the rear surface of the touch sensor substrate; and an optical path through which light of at least one of the plural light sources passes toward the at least one light-emitting unit, wherein the optical path is a light diffusion member (H1, H2, H3, H4, H5) or a light guide member (J1, J2, J3, J4, J5), characterized in that a plurality of light shielding walls (23b, 23c) are formed integrally with, and protrude from, the back frame toward the rear surface of the touch sensor substrate, and respectively surround respective ones of the plurality of light sources.
Process for the production of sulphur from a gas comprising hydrogen sulphide, such process comprising the steps of: a) subjecting such gas to a thermal stage in a combustion chamber in the presence of oxygen so as to obtain the partial conversion of the hydrogen sulphide into sulphur and a gas comprising unconverted hydrogen sulphide, sulphur dioxide and water vapour; b) subjecting the gas obtained from step a) to a catalytic stage in the presence of suitable catalysts, so as to obtain the partial conversion of the hydrogen sulphide into sulphur, water vapour and a tail gas comprising hydrogen sulphide; c) subjecting the sulphur to condensation; characterized in that step a) is carried out in the presence of sulphuric acid obtained by a SNOX/WSA process (Wet Sulphuric Acid process). a) subjecting such gas to a thermal stage in a combustion chamber in the presence of oxygen so as to obtain the partial conversion of the hydrogen sulphide into sulphur and a gas comprising unconverted hydrogen sulphide, sulphur dioxide and water vapour; b) subjecting the gas obtained from step a) to a catalytic stage in the presence of suitable catalysts, so as to obtain the partial conversion of the hydrogen sulphide into sulphur, water vapour and a tail gas comprising hydrogen sulphide; c) subjecting the sulphur to condensation; characterized in that step a) is carried out in the presence of sulphuric acid obtained by a SNOX/WSA process (Wet Sulphuric Acid process).
A method of forming a decorative wear resistant layer, the method comprising: • providing a substrate (4; 4a; 5) comprising a thermoplastic material and a transparent layer comprising a thermoplastic material, • providing a continuous print layer comprising particles on the substrate (4; 4a; 5) or on the transparent layer, wherein the print layer comprises loose particles, and wherein the particles comprise a thermoplastic powder, • printing a digital image comprising colour pigments on the print layer, and • bonding the print layer with the colour pigments to the transparent layer and to the substrate (4; 4a; 5) with heat and pressure such that the digital image is located between the transparent layer and the substrate (4; 4a; 5), wherein the transparent layer is a thermoplastic foil, and wherein the substrate is a thermoplastic foil. • providing a substrate (4; 4a; 5) comprising a thermoplastic material and a transparent layer comprising a thermoplastic material, • providing a continuous print layer comprising particles on the substrate (4; 4a; 5) or on the transparent layer, wherein the print layer comprises loose particles, and wherein the particles comprise a thermoplastic powder, • printing a digital image comprising colour pigments on the print layer, and • bonding the print layer with the colour pigments to the transparent layer and to the substrate (4; 4a; 5) with heat and pressure such that the digital image is located between the transparent layer and the substrate (4; 4a; 5),
A catheter comprising: a proximal end portion and a distal end portion, the proximal end portion defining at least one fluid inlet port and at least one fluid outlet port; a first expandable membrane and a second expandable membrane, the first expandable membrane defining a cooling chamber, the second expandable membrane disposed around the first expandable membrane to define an interstitial space therebetween; a coolant injection lumen in fluid communication with the at least one fluid inlet port and the cooling chamber; a primary coolant return lumen in fluid communication with the at least one fluid outlet port and the cooling chamber, the coolant injection tube, the cooling chamber, and the primary coolant return lumen defining a first fluid pathway; a secondary coolant return lumen in fluid communication with the at least one fluid outlet port and the interstitial space, the interstitial space and the secondary coolant return lumen defining a second fluid pathway, characterized in that the secondary coolant return lumen is in fluid communication with the primary coolant return lumen at the proximal end portion; further characterized in that the catheter comprises at least one sensor having a flow switch and disposed in the secondary coolant return lumen; and and in that the at least one sensor includes an optical sensor including a Fabry-Perot interferometer. a proximal end portion and a distal end portion, the proximal end portion defining at least one fluid inlet port and at least one fluid outlet port; a first expandable membrane and a second expandable membrane, the first expandable membrane defining a cooling chamber, the second expandable membrane disposed around the first expandable membrane to define an interstitial space therebetween; a coolant injection lumen in fluid communication with the at least one fluid inlet port and the cooling chamber; a primary coolant return lumen in fluid communication with the at least one fluid outlet port and the cooling chamber, the coolant injection tube, the cooling chamber, and the primary coolant return lumen defining a first fluid pathway; a secondary coolant return lumen in fluid communication with the at least one fluid outlet port and the interstitial space, the interstitial space and the secondary coolant return lumen defining a second fluid pathway, characterized in that the secondary coolant return lumen is in fluid communication with the primary coolant return lumen at the proximal end portion; further characterized in that the catheter comprises at least one sensor having a flow switch and disposed in the secondary coolant return lumen; and and in that the at least one sensor includes an optical sensor including a Fabry-Perot interferometer.
An article comprising: a first textile element at least partially formed from a first thermoplastic polymer material; a second textile element; and a seam where (a) the first textile element and the second textile element are thermal bonded to each other with the first thermoplastic polymer material and (b) a second thermoplastic polymer material is thermal bonded to the first textile element and the second textile element, a melting temperature of the second thermoplastic polymer material being lower than a melting temperature of the first thermoplastic polymer material, wherein the second thermoplastic polymer material is a completely melted strand that joins the first textile element and the second textile element at the seam. a first textile element at least partially formed from a first thermoplastic polymer material; a second textile element; and a seam where (a) the first textile element and the second textile element are thermal bonded to each other with the first thermoplastic polymer material and (b) a second thermoplastic polymer material is thermal bonded to the first textile element and the second textile element, a melting temperature of the second thermoplastic polymer material being lower than a melting temperature of the first thermoplastic polymer material, wherein the second thermoplastic polymer material is a completely melted strand that joins the first textile element and the second textile element at the seam.
Sealing apparatus comprising: a moveable seal holder; charaterised by a cavity in the seal holder; and a seal assembly disposed at least partially in the cavity and comprising: a resilient seal member including a fluid-facing end with a fluid-facing end surface; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate, plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface; and the first protective plate disposed between the seal member and the first actuator plate; wherein the first actuator plate is configured to compress the seal member and to move the fluid-facing end surface of the seal member outward from a resting position when the first actuator plate is in the second position. a moveable seal holder; charaterised by a cavity in the seal holder; and a seal assembly disposed at least partially in the cavity and comprising: a resilient seal member including a fluid-facing end with a fluid-facing end surface; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate, plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface; and the first protective plate disposed between the seal member and the first actuator plate; a resilient seal member including a fluid-facing end with a fluid-facing end surface; a first actuator plate configured to reciprocate between a first and a second position relative to a first protective plate, plate, the first actuator plate comprising a fluid-facing end surface and a first camming surface; and the first protective plate disposed between the seal member and the first actuator plate; wherein the first actuator plate is configured to compress the seal member and to move the fluid-facing end surface of the seal member outward from a resting position when the first actuator plate is in the second position.
Device (17, 22) for a diver, comprising at least one electronic circuit and a battery designed to supply said circuit, said circuit and said battery being included in a block of hydrophobic material characterised in that said device further comprises at least one actuator included in said block of hydrophobic material, controlled by said electronic circuit and supplied by said battery, said actuator comprising a valve or shutter designed to be remotely controlled.
A lightning receptor for a wind turbine rotor blade comprising a mounting portion and a rotationally symmetric head having a base portion and a convexly curved end portion, wherein the base portion and the end portion about each other at an edge describing a circle with a radius a, characterized in that a curve generating a surface of rotation of the head is bent at the edge by an angle (α) in the range of 5° to 45° in the direction of an axis of rotation and includes a curvature in the region of the end portion whose radius of curvature is everywhere in the range of a to 3 a.
An energy absorber (50, 90), comprising: a plurality of crush lobes (56, 84) that deform plastically upon impact to absorb energy, wherein the crush lobes (56, 84) include a base (64, 78) and sides extending from the base (64, 78) to an outer wall (60, 82), wherein the base (64, 78), sides and outer wall (60, 82) comprise a first thermoplastic material; and a composite insert (58, 92) in the energy absorber (50, 90), wherein the composite insert (58, 92)comprises a second plastic material and reinforcement, wherein the second plastic material is different than the first thermoplastic material, wherein the composite insert (58, 92) is located on a surface of the side and/or the outer wall (60, 82, 86, 88), into a surface of the side and/or the outer wall (60, 82, 86, 88), or encapsulated inside the side and/or the outer wall (60, 82, 86, 88) of the crush lobes (56, 84) a plurality of crush lobes (56, 84) that deform plastically upon impact to absorb energy, wherein the crush lobes (56, 84) include a base (64, 78) and sides extending from the base (64, 78) to an outer wall (60, 82), wherein the base (64, 78), sides and outer wall (60, 82) comprise a first thermoplastic material; and a composite insert (58, 92) in the energy absorber (50, 90), wherein the composite insert (58, 92)comprises a second plastic material and reinforcement, wherein the second plastic material is different than the first thermoplastic material, wherein the composite insert (58, 92) is located on a surface of the side and/or the outer wall (60, 82, 86, 88), into a surface of the side and/or the outer wall (60, 82, 86, 88), or encapsulated inside the side and/or the outer wall (60, 82, 86, 88) of the crush lobes (56, 84)
Heat exchanger comprising an assembly of internal pipes stacked in a longitudinal stacking direction (x) to form a heat exchanger body designed for the circulation of a first fluid, comprising a connection device arranged at one extremity of the heat exchanger body in the longitudinal stacking direction (x), the connection device including an end plate and a cover that can be assembled together to jointly delimit an inlet duct and an outlet duct, respectively, to admit the fluid into the heat exchanger body and discharge the fluid from the heat exchanger body, characterized in that the inlet duct and the outlet duct open out in a transversal direction (y) substantially perpendicular to the longitudinal stacking direction (x).
A method for removing a material from a substrate on which the material is disposed, the method comprising: generating a plasma at atmospheric pressure, the plasma comprising an energetic species reactive with one or more components of the material; flowing the plasma from a nozzle exit (510, 910, 1178, 1310, 1322) as a plasma plume (514, 1314) to ambient pressure outside of the nozzle exit; and exposing the material to the plasma plume (514, 1314), wherein at least one component of the material reacts with the energetic species and at least one other component of the material is physically impacted and moved by one or more of the regions of high plasma density (530, 1330); characterized in that the plasma plume (514, 1314) comprises periodic regions of high plasma density (530, 1330) and low plasma density that include respective shock waves that impact and move the at least one other component. generating a plasma at atmospheric pressure, the plasma comprising an energetic species reactive with one or more components of the material; flowing the plasma from a nozzle exit (510, 910, 1178, 1310, 1322) as a plasma plume (514, 1314) to ambient pressure outside of the nozzle exit; and exposing the material to the plasma plume (514, 1314), wherein at least one component of the material reacts with the energetic species and at least one other component of the material is physically impacted and moved by one or more of the regions of high plasma density (530, 1330); characterized in that the plasma plume (514, 1314) comprises periodic regions of high plasma density (530, 1330) and low plasma density that include respective shock waves that impact and move the at least one other component.