mhurhangee/ep-ind-claims huggingface dataset:
An electronic device for managing an integrated circuit, IC, card domain, the electronic device comprising: the IC card domain, configured to store a first SIM profile and a second SIM profile; and a communication domain coupled to the IC card domain via a physical interface; wherein the IC card domain is configured to: generate a first logical interface on the physical interface; associate the first SIM profile with the first logical interface by providing a first logical interface identifier; generate a second logical interface on the physical interface; associate the second SIM profile with the second logical interface by providing a second logical interface identifier; wherein the communication domain is configured to: address the first SIM profile, by using the first logical interface identifier, in parallel and independent from the second SIM profile; and address the second SIM profile, by using the second logical interface identifier, in parallel and independent from the first SIM profile; characterized in that at least one of the first logical interface identifier and the second logical interface identifier comprises a pair of identifiers, each for one direction of communication. the IC card domain, configured to store a first SIM profile and a second SIM profile; and a communication domain coupled to the IC card domain via a physical interface; generate a first logical interface on the physical interface; associate the first SIM profile with the first logical interface by providing a first logical interface identifier; generate a second logical interface on the physical interface; associate the second SIM profile with the second logical interface by providing a second logical interface identifier; address the first SIM profile, by using the first logical interface identifier, in parallel and independent from the second SIM profile; and address the second SIM profile, by using the second logical interface identifier, in parallel and independent from the first SIM profile; characterized in that at least one of the first logical interface identifier and the second logical interface identifier comprises a pair of identifiers, each for one direction of communication.
Hydraulic pressurizing medium supply assembly for an open hydraulic circuit, having a hydro machine, having an adjusting mechanism which has an actuating cylinder having a set piston for adjusting the delivery volume of the hydro machine and which has a pilot valve which is electrically actuatable in a proportional manner, wherein an inflow to and/or an outflow via the pilot valve from a control chamber of the actuating cylinder that is delimited by the set piston is able to be controlled in order for the set piston for actuation to be impinged with pressurizing medium, and wherein an electronic control which has a controller (60, 62; 94, 96) having an output variable in the form of a control variable for the pilot valve is provided for the pilot valve, wherein a valve slide of the pilot valve at a specific neutral current assumes a position in which it is provided that the set piston does not perform any movement, characterized in that at the output side of the controller (60,62; 94,96) a preliminary control variable for the neutral current is linked with the control variable of the controller (60, 62; 94, 96) in order for the control variable for the pilot valve to be set.
A switch assembly comprising: a panel having a front side and a back side, said panel defining an aperture therethrough, the aperture having an edge surface perpendicular to the front and back sides (104, 106); a switch subassembly disposed through the aperture and having a switch housing defining a longitudinal direction that is perpendicular to said panel, and having an outer periphery dimensioned to fit within the edge surface of the aperture of said panel; at least one tab extending from the switch housing adjacent the back side of said panel, said at least one tab having a first portion that extends away from said switch housing and toward the back side of said panel to a projection, the projection spaced in the longitudinal direction from the back side of the panel and laterally outward of the edge surface of the aperture when said at least one tab is in a relaxed state, said at least one tab having a second portion that extends from the projection in the longitudinal direction and terminates in a tab end disposed within the aperture of said panel; wherein the tab end of said at least one tab is accessible from the front side of said panel and wherein said at least one tab is sufficiently flexible such that flexing the tab end inwardly from the front side of said panel causes the projection to flex inwardly from the relaxed state to a point where the projection can pass through the aperture to facilitate removal of the switch subassembly from the front side of said panel. a panel having a front side and a back side, said panel defining an aperture therethrough, the aperture having an edge surface perpendicular to the front and back sides (104, 106); a switch subassembly disposed through the aperture and having a switch housing defining a longitudinal direction that is perpendicular to said panel, and having an outer periphery dimensioned to fit within the edge surface of the aperture of said panel; at least one tab extending from the switch housing adjacent the back side of said panel, said at least one tab having a first portion that extends away from said switch housing and toward the back side of said panel to a projection, the projection spaced in the longitudinal direction from the back side of the panel and laterally outward of the edge surface of the aperture when said at least one tab is in a relaxed state, said at least one tab having a second portion that extends from the projection in the longitudinal direction and terminates in a tab end disposed within the aperture of said panel; wherein the tab end of said at least one tab is accessible from the front side of said panel and wherein said at least one tab is sufficiently flexible such that flexing the tab end inwardly from the front side of said panel causes the projection to flex inwardly from the relaxed state to a point where the projection can pass through the aperture to facilitate removal of the switch subassembly from the front side of said panel.
An external coil assembly for an inductively coupled implant on the human or animal body, comprising: a transmitting coil, adapted to transmit signals to the implant; a first receiving coil, adapted to receive signals from the implant, the first receiving coil exhibiting a first coupling coefficient with the transmitting coil; a second receiving coil,, the second receiving coil exhibiting a second coupling coefficient with the transmitting coil, characterised in that the first coupling coefficient is substantially equal and opposite to the second coupling coefficient, and the first receiving coil and the second receiving coil are located on a same side of the transmitting coil and axially displaced from the transmitting coil such that an internal area defined by the first receiving coil and an internal area defined by the second receiving coil each overlap an internal area and an external area defined by the transmitting coil. a transmitting coil, adapted to transmit signals to the implant; a first receiving coil, adapted to receive signals from the implant, the first receiving coil exhibiting a first coupling coefficient with the transmitting coil; a second receiving coil,, the second receiving coil exhibiting a second coupling coefficient with the transmitting coil, characterised in that the first coupling coefficient is substantially equal and opposite to the second coupling coefficient, and the first receiving coil and the second receiving coil are located on a same side of the transmitting coil and axially displaced from the transmitting coil such that an internal area defined by the first receiving coil and an internal area defined by the second receiving coil each overlap an internal area and an external area defined by the transmitting coil.
A disinfectant composition comprising: i) an acid; ii) a vinylpyrrolidone copolymer having the following general formula: wherein, n is from 20 to 99; m is from 1 to 80; p is from 0 to 50, and wherein the total of n + m + p is 100; R 1 is H or a C 1 to C 4 alkyl; Z is O, S, or NH; R 2 is (CH 2) x; x is from 1 to 18; y is 0 or 1; R 3 is independently hydrogen or a C 1 to C 4 alkyl; and M is a vinyl or vinylidene monomer copolymerizable with vinyl pyrrolidone; iii) a polyquaternary ammonium polymer having the following general structure: (N + R 13 R 14 -(CH 2) a -NH-C -NH-(CH 2) b -N + R 13 R 14 -R 15) n -2nX- wherein, R 13 and R 14 are independently alkyl, hydroxyalkyl, or - CH 2 CH 2 (OCH 2 CH 2) c OH; R 15 is a linking group and may be (CH 2) d or {(CH 2) e O(CH 2) f} g; Y is O, S or NH; a, b, c, d, e and f are each independently from 1 to 6; g is from 1 to 4; n is at least 2; and X - is an anion; and iv) a cationic surfactant; wherein the composition has a pH of 4.5 or less, and further wherein the vinylpyrrolidone copolymer is present in an amount from 50 to 90 parts per 100 parts of acids employed in the composition, and wherein the polyquaternary ammonium polymer is present in an amount from 30 to 70 parts per 100 parts of acids employed in the composition. i) an acid; ii) a vinylpyrrolidone copolymer having the following general formula: wherein, n is from 20 to 99; m is from 1 to 80; p is from 0 to 50, and wherein the total of n + m + p is 100; R 1 is H or a C 1 to C 4 alkyl; Z is O, S, or NH; R 2 is (CH 2) x; x is from 1 to 18; y is 0 or 1; R 3 is independently hydrogen or a C 1 to C 4 alkyl; and M is a vinyl or vinylidene monomer copolymerizable with vinyl pyrrolidone; n is from 20 to 99; m is from 1 to 80; p is from 0 to 50, and wherein the total of n + m + p is 100; R 1 is H or a C 1 to C 4 alkyl; Z is O, S, or NH; R 2 is (CH 2) x; x is from 1 to 18; y is 0 or 1; R 3 is independently hydrogen or a C 1 to C 4 alkyl; and M is a vinyl or vinylidene monomer copolymerizable with vinyl pyrrolidone; iii) a polyquaternary ammonium polymer having the following general structure: (N + R 13 R 14 -(CH 2) a -NH-C -NH-(CH 2) b -N + R 13 R 14 -R 15) n -2nX- wherein, R 13 and R 14 are independently alkyl, hydroxyalkyl, or - CH 2 CH 2 (OCH 2 CH 2) c OH; R 15 is a linking group and may be (CH 2) d or {(CH 2) e O(CH 2) f} g; Y is O, S or NH; a, b, c, d, e and f are each independently from 1 to 6; g is from 1 to 4; n is at least 2; and X - is an anion; and R 13 and R 14 are independently alkyl, hydroxyalkyl, or - CH 2 CH 2 (OCH 2 CH 2) c OH; R 15 is a linking group and may be (CH 2) d or {(CH 2) e O(CH 2) f} g; Y is O, S or NH; a, b, c, d, e and f are each independently from 1 to 6; g is from 1 to 4; n is at least 2; and X - is an anion; and iv) a cationic surfactant; wherein the composition has a pH of 4.5 or less, and further wherein the vinylpyrrolidone copolymer is present in an amount from 50 to 90 parts per 100 parts of acids employed in the composition, and wherein the polyquaternary ammonium polymer is present in an amount from 30 to 70 parts per 100 parts of acids employed in the composition.
A cylindrical combustion surface gas burner including a perforated cylindrical wall acting as a combustion surface, a bottom wall and an inlet opening through which a combustible gas mixture is introduced inside the burner, characterized in that it comprises a pressure and flow rate stabilizing device which comprises a grid (4a, 4b, 4c) including a central ring (5a, 5b) surrounded by a series of diverting vanes, this grid (4a, 4b, 4c) being adapted to be positioned inside said inlet opening, such that the central ring (5a, 5b) of X-X' axis be coaxial with the perforated cylindrical wall of the X-X' axis, said central ring (5a, 5b) allowing free passage of the central portion of the gas mixture flow penetrating the burner, while said diverting vanes generate a vortex movement of the peripheral portion of this flow penetrating the burner from the outside of the central ring (5a, 5b).
An in vitro method for the prognosis of the survival time of a patient suffering from a solid cancer, which method comprises the following steps: a) detecting and quantifying two or more biological markers indicative of the status of the immune response of said patient against said cancer, wherein each biological marker indicative of the status of the immune response is detected in vitro and quantified in a tumor sample obtained from said patient; b) comparing each values obtained at step a) for said two or more biological markers with a distribution of values obtained for each of said two or more biological markers from a reference group of patients suffering from said cancer; c) determining for each values obtained at step a) for said two or more biological markers the percentile of the distribution to which the values obtained at step a) correspond; d) calculating the arithmetic mean value or the median value of percentiles of the biological markers determined in step c); and e) comparing the arithmetic mean value or the median value of percentiles obtained at step d) with a predetermined reference arithmetic mean value or a predetermined median value of percentiles, which predetermined reference value is correlated with survival time. a) detecting and quantifying two or more biological markers indicative of the status of the immune response of said patient against said cancer, wherein each biological marker indicative of the status of the immune response is detected in vitro and quantified in a tumor sample obtained from said patient; b) comparing each values obtained at step a) for said two or more biological markers with a distribution of values obtained for each of said two or more biological markers from a reference group of patients suffering from said cancer; c) determining for each values obtained at step a) for said two or more biological markers the percentile of the distribution to which the values obtained at step a) correspond; d) calculating the arithmetic mean value or the median value of percentiles of the biological markers determined in step c); and e) comparing the arithmetic mean value or the median value of percentiles obtained at step d) with a predetermined reference arithmetic mean value or a predetermined median value of percentiles, which predetermined reference value is correlated with survival time.
Wiper arm spraying device (10a; 10b) for coupling to a wiper arm (12a; 12b), comprising at least one valve unit (14a; 14b) which is provided for supplying a nozzle unit (16a; 16b) with wiper fluid, wherein the valve unit (14a; 14b) is provided to be integrated in a wiper arm hose unit (18a; 18b), comprising a nozzle unit (16a; 16b) which is provided for applying wiper fluid to a vehicle window, wherein the valve unit (14a; 14b) has a housing (20a; 20b) which is formed separately from a housing (22a; 22b) of the nozzle unit (16a; 16b), wherein the nozzle unit has at least one coupling element which is provided for coupling the nozzle unit to a wiper arm adapter of the wiper arm, characterized in that the nozzle unit (16a; 16b) has at least one further coupling element (34a; 34b) which is provided for coupling the nozzle unit (16a; 16b) to a wiper rod (26a; 26b) of the wiper arm (12a; 12b).
Method for assessing the safety of a production plant, wherein the production plant has at least one plant module (2, 2'), wherein the plant module (2, 2') is interchangeable and/or plant modules (2, 2') can be added, wherein the at least one plant module (2, 2') is designed as a robot plant, having the software-implemented method steps of: - collecting plant module data, process data and environmental data as collected data, - analysing the collected data for the safety assessment of the present configuration by means of a computer-aided simulation device, wherein, if the plant module (2, 2') is interchanged or if a plant module (2, 2') is added and/or removed during production and a running time of the production plant, a safety assessment of the modified production plant is automatically carried out by means of the method steps, wherein the environmental data comprise data from a plant room on obstacles and/or geometries therein or walls, wherein display data comprising the safety assessment are displayed graphically to a user, wherein the production plant is operated safely after the safety assessment has been approved by the user, wherein the environmental data describe the plant room as a spatial model, wherein a simulation is carried out in a 3D scene and/or in a 3D model of the production plant, and wherein the safety assessment includes an analysis with respect to path planning and/or trajectory planning and/or the obstacles. wherein the production plant has at least one plant module (2, 2'), wherein the plant module (2, 2') is interchangeable and/or plant modules (2, 2') can be added, wherein the at least one plant module (2, 2') is designed as a robot plant, having the software-implemented method steps of: - collecting plant module data, process data and environmental data as collected data, - analysing the collected data for the safety assessment of the present configuration by means of a computer-aided simulation device, - collecting plant module data, process data and environmental data as collected data, - analysing the collected data for the safety assessment of the present configuration by means of a computer-aided simulation device, wherein, if the plant module (2, 2') is interchanged or if a plant module (2, 2') is added and/or removed during production and a running time of the production plant, a safety assessment of the modified production plant is automatically carried out by means of the method steps, wherein the environmental data comprise data from a plant room on obstacles and/or geometries therein or walls, wherein display data comprising the safety assessment are displayed graphically to a user, wherein the production plant is operated safely after the safety assessment has been approved by the user, wherein the environmental data describe the plant room as a spatial model, wherein a simulation is carried out in a 3D scene and/or in a 3D model of the production plant, and wherein the safety assessment includes an analysis with respect to path planning and/or trajectory planning and/or the obstacles.
A light source comprising a light emitting element which emits light, and a light conversion layer which converts the light emitted from the light emitting element into white light and emits the white light, wherein the light conversion layer comprises a resin, a quantum dot material mixed with the resin and a scatterer, wherein a red apex of a color region of the white light is positioned in a region of 0.65<Cx<0.69 and 0.29<Cy<0.33 in color coordinates, and a green apex of the color region of the white light is positioned in a region of 0.17<Cx<0.31 and 0.61<Cy<0.70 in the color coordinates, Cx and Cy being measured along the x-axis and y-axis, respectively, in the CIE 1931 xy chromaticity diagram.
Manhole cover comprising: - a support frame suitable to delimit an access point to a well; - a lid housed in a seat defined by said support frame to define a closing condition of said manhole cover; - pivotal coupling means suitable to rotatably couple said lid to said support frame defining a plurality of operating conditions between said closing condition, wherein said lid is housed in said seat, and an at least partial opening condition, wherein said lid is at least partially arranged outside said seat; said pivotal coupling means comprising a rotation shaft defining a rotation axis for said lid; and - a containment seat, having a walkable protection element, connected to a perimeter portion of said support frame, said containment seat being suitable to house at least partially said rotation shaft of said pivotal coupling means, Characterized in that it further comprises a containment body defining said containment seat, said containment body comprising: - a first wall and a second wall, arranged opposite to each other and connected to said protection element, respectively defining an open support portion (11a, 11b) suitable to support from below said rotation shaft, wherein said first and second wall (10a, 10b) respectively have a guiding portion (12a, 12b) suitable to facilitate the insertion of said rotation shaft in said support portions (11a, 11b). - a support frame suitable to delimit an access point to a well; - a lid housed in a seat defined by said support frame to define a closing condition of said manhole cover; - pivotal coupling means suitable to rotatably couple said lid to said support frame defining a plurality of operating conditions between said closing condition, wherein said lid is housed in said seat, and an at least partial opening condition, wherein said lid is at least partially arranged outside said seat; said pivotal coupling means comprising a rotation shaft defining a rotation axis for said lid; and - a containment seat, having a walkable protection element, connected to a perimeter portion of said support frame, said containment seat being suitable to house at least partially said rotation shaft of said pivotal coupling means, - a first wall and a second wall, arranged opposite to each other and connected to said protection element, respectively defining an open support portion (11a, 11b) suitable to support from below said rotation shaft, wherein said first and second wall (10a, 10b) respectively have a guiding portion (12a, 12b) suitable to facilitate the insertion of said rotation shaft in said support portions (11a, 11b).
A method comprising the following steps carried out by a secure module: receiving a request for the secure module to enter an unlocked lifecycle state, wherein the unlocked state is one where an entity managing the secure module can be changed; requesting to an entity that currently manages the secure module confirmation to enter the unlocked lifecycle state; if the request is confirmed, transitioning the secure module from a current lifecycle state to the unlocked lifecycle state, wherein the transitioning to the unlocked lifecycle state occurs without user intervention; and subsequently transitioning the secure module from the unlocked lifecycle state to a locked lifecycle state, wherein the locked lifecycle state is one where the entity managing the secure module cannot be changed, where transitioning to the locked lifecycle state comprises requesting a user associated with the secure module to confirm the transition to the locked lifecycle state. receiving a request for the secure module to enter an unlocked lifecycle state, wherein the unlocked state is one where an entity managing the secure module can be changed; requesting to an entity that currently manages the secure module confirmation to enter the unlocked lifecycle state; if the request is confirmed, transitioning the secure module from a current lifecycle state to the unlocked lifecycle state, wherein the transitioning to the unlocked lifecycle state occurs without user intervention; and subsequently transitioning the secure module from the unlocked lifecycle state to a locked lifecycle state, wherein the locked lifecycle state is one where the entity managing the secure module cannot be changed, where transitioning to the locked lifecycle state comprises requesting a user associated with the secure module to confirm the transition to the locked lifecycle state.