mhurhangee/ep-ind-claims huggingface dataset:
A method for discovering key information, comprising: interrogating at least one segment (130a-d) for key information associated with encryption keys corresponding to each ones of encryption assets of the at least one segment; receiving output data including the key information associated with the encryption keys from the at least one segment in a network mapping format as a result of the interrogating; extracting the key information associated with the encryption keys from the output data; storing the key information; and performing a key management activity based on the stored key information; wherein the key information comprises at least one of: a device identifier, device location, key type, key origin, key length, or key strength; and wherein the network mapping format is a Network Mapper (NMAP) format, and the key information associated with the encryption keys is extracted within a data layer of the output data in the NMAP format.. interrogating at least one segment (130a-d) for key information associated with encryption keys corresponding to each ones of encryption assets of the at least one segment; receiving output data including the key information associated with the encryption keys from the at least one segment in a network mapping format as a result of the interrogating; extracting the key information associated with the encryption keys from the output data; storing the key information; and performing a key management activity based on the stored key information; wherein the key information comprises at least one of: a device identifier, device location, key type, key origin, key length, or key strength; and wherein the network mapping format is a Network Mapper (NMAP) format, and the key information associated with the encryption keys is extracted within a data layer of the output data in the NMAP format..
A parking lock device for a transmission of a vehicle, the device comprising a wheel, a pawl for locking the wheel against rotation and an actuator unit arranged for movement of the pawl relative to the wheel, the pawl having a locked position where the pawl and the wheel are engaged and an unlocked position where the pawl and the wheel are disengaged, the pawl being pivotally arranged for pivoting about a pivot axis between the locked position and the unlocked position, characterized in that the pawl and the actuator unit being mechanically coupled to each other by a pin and slot mechanism having a guide slot and a guide pin received by the guide slot, where the actuator unit is arranged to move the pawl from the unlocked position to the locked position by movement of the guide pin along the guide slot in a first direction, and from the locked position to the unlocked position by movement of the guide pin along the guide slot in a second direction.
A pump comprising: a. a wet end body defining (i) a liquid inlet and (ii) a liquid outlet; b. a rotatable motor shaft; and c. a fan comprising: i. a central opening configured to receive the rotatable motor shaft; ii. a front; iii. a rear; iv. an outer periphery; v. a first plurality of blades extending from the rear, each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery; vi. a second plurality of blades extending from the front; and vii. a plurality of pass-through holes from the rear to the front, wherein each blade of the second plurality of blades defines a first end adjacent the central opening and a second end adjacent the outer periphery. a. a wet end body defining (i) a liquid inlet and (ii) a liquid outlet; b. a rotatable motor shaft; and c. a fan comprising: i. a central opening configured to receive the rotatable motor shaft; ii. a front; iii. a rear; iv. an outer periphery; v. a first plurality of blades extending from the rear, each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery; vi. a second plurality of blades extending from the front; and vii. a plurality of pass-through holes from the rear to the front, i. a central opening configured to receive the rotatable motor shaft; ii. a front; iii. a rear; iv. an outer periphery; v. a first plurality of blades extending from the rear, each blade of the first plurality of blades defining a first end adjacent the central opening and a second end adjacent the outer periphery; vi. a second plurality of blades extending from the front; and vii. a plurality of pass-through holes from the rear to the front,
A valve assembly for use in an actuation assembly, with the actuation assembly including an actuation housing coupled to a transmission of a vehicle to direct fluid, said valve assembly comprising: a valve support adapted to be coupled to the actuation housing, with said valve support having a body portion defining a plurality of solenoid bores; a plurality of solenoids with each one of said plurality of solenoids disposed within a corresponding one of said plurality of solenoid bores, and with said plurality of solenoids being directly mounted to said valve support for controlling a flow of fluid; an electrical power distribution device at least partially coupled to said valve support with said electrical power distribution device connected to each of said plurality of solenoids to provide electrical power to said plurality of solenoids to actuate said plurality of solenoids for controlling the flow of fluid; and a tray coupled to said body portion of said valve support to support a portion of said electrical power distribution device, wherein said tray comprises a plurality of connector portions disposed about said body portion, characterized in that each of said connector portions of said plurality of connector portions is further defined as a connector arm and a connector body, with said connector arm extending from said tray toward said body portion of said valve support, and with said connector body disposed adjacent one of said plurality of solenoids. a valve support adapted to be coupled to the actuation housing, with said valve support having a body portion defining a plurality of solenoid bores; a plurality of solenoids with each one of said plurality of solenoids disposed within a corresponding one of said plurality of solenoid bores, and with said plurality of solenoids being directly mounted to said valve support for controlling a flow of fluid; an electrical power distribution device at least partially coupled to said valve support with said electrical power distribution device connected to each of said plurality of solenoids to provide electrical power to said plurality of solenoids to actuate said plurality of solenoids for controlling the flow of fluid; and a tray coupled to said body portion of said valve support to support a portion of said electrical power distribution device, wherein said tray comprises a plurality of connector portions disposed about said body portion, characterized in that each of said connector portions of said plurality of connector portions is further defined as a connector arm and a connector body, with said connector arm extending from said tray toward said body portion of said valve support, and with said connector body disposed adjacent one of said plurality of solenoids.
A cage system for housing an animal having an opening for entry and exit from the cage, said opening defined by a frame having two opposing vertical pillars (2, 2) and said opening provided with a door wherein the door comprises at least two mesh panels (9,10) which each extend across the opening between the vertical pillars, said panels forming a surface having a vertical plane covering at least part of the opening when the door is closed and which are moved into a horizontal plane when the door is opened, characterised in that the two panels (9,10) are connected by a cage connector which comprises two generally elongated members which are hingedly connected together and which are releasably fastenable to each other, so that mesh parts from each panel (9,10) are connected by placing the parts between the members and fastening the members to each other, wherein at least one member has a tab which projects transversely to the longitudinal axis of the member and the tab of the connector abuts with a vertical pillar when the door is closed to prevent opening of the door by a panel being pushed outwards from inside the cage.
An ultraviolet absorbance based capillary electrophoresis system comprising a console housing an operable multiplexed capillary electrophoresis system that includes: a capillary array containing at least 12 capillaries; characterized in that the electrophoresis system further includes: a UV light source; a first enclosure covering said UV light source, wherein said first enclosure contains a slit; and a second enclosure covering said first enclosure, a collimating lens, and a capillary window of said capillary array, said slit allowing for emission of light to the capillary window through the collimating lens. a UV light source; a first enclosure covering said UV light source, wherein said first enclosure contains a slit; and a second enclosure covering said first enclosure, a collimating lens, and a capillary window of said capillary array, said slit allowing for emission of light to the capillary window through the collimating lens.
Vehicle (1, 100) comprising a dashboard provided with a housing delimited by a lateral wall included in the dashboard and intended to receive an airbag, of which the housing is closed off by a closure wall that is flush with a surface of the dashboard and comprising two nets (103, 104) and a layer in which said nets (103, 104) are embedded, the two nets (103, 104) being attached to the lateral wall (9, 102) and extending towards one another, creating a space between them, the lateral wall being extended by a widened and planar collar that lies in a plane that is perpendicular to the lateral wall, the two nets (103, 104) being attached to this collar, characterized in that the layer is made of expanded polypropylene and in that the two nets (103, 104), a part of the lateral wall and the collar are overmoulded into the layer of expanded polypropylene.
A computer-implemented method comprising: receiving endpoint location data from a pair of position sensors mounted on opposite ends of a catheter basket and receiving spline tangent data, wherein said catheter basket includes a plurality of flexible splines and a plurality of electrodes disposed on each of the flexible splines and wherein said endpoint location data and spline tangent data is received while said catheter basket is positioned within a heart chamber, and wherein the spline tangent data includes information indicating a tangent of a proximal end of a spline of the catheter basket; based on said endpoint location data and spline tangent data, calculating fourth order Bezier curve control points; based on the fourth order Bezier curve control points, determining estimated positions of said plurality of electrodes; and updating an electro-anatomical map of said heart chamber that is rendered on a display based on the estimated positions determined. receiving endpoint location data from a pair of position sensors mounted on opposite ends of a catheter basket and receiving spline tangent data, wherein said catheter basket includes a plurality of flexible splines and a plurality of electrodes disposed on each of the flexible splines and wherein said endpoint location data and spline tangent data is received while said catheter basket is positioned within a heart chamber, and wherein the spline tangent data includes information indicating a tangent of a proximal end of a spline of the catheter basket; based on said endpoint location data and spline tangent data, calculating fourth order Bezier curve control points; based on the fourth order Bezier curve control points, determining estimated positions of said plurality of electrodes; and updating an electro-anatomical map of said heart chamber that is rendered on a display based on the estimated positions determined.
A linear compressor, comprising: a cylinder having a compression space for a refrigerant defined therein; a piston configured for reciprocatably moving in an axial direction inside the cylinder; and a linear motor for supplying a power to the piston, wherein the linear motor comprises: an outer stator comprising a first stator magnetic pole, a second stator magnetic pole and an opening defined between the first stator magnetic pole and the second stator magnetic pole; an inner stator disposed apart from the outer stator; and a permanent magnet, characterised in that the permanent magnet has three poles (231, 232, 233), movably disposed in an air gap between the outer stator and the inner stator, wherein the three poles include two both-end magnetic poles (231, 233); and a central magnetic pole disposed between the two both-end magnetic poles, the central magnetic pole having a length greater than any one of the two both-end magnetic poles. a cylinder having a compression space for a refrigerant defined therein; a piston configured for reciprocatably moving in an axial direction inside the cylinder; and a linear motor for supplying a power to the piston, an outer stator comprising a first stator magnetic pole, a second stator magnetic pole and an opening defined between the first stator magnetic pole and the second stator magnetic pole; an inner stator disposed apart from the outer stator; and a permanent magnet, characterised in that the permanent magnet has three poles (231, 232, 233), movably disposed in an air gap between the outer stator and the inner stator, wherein the three poles include two both-end magnetic poles (231, 233); and a central magnetic pole disposed between the two both-end magnetic poles, the central magnetic pole having a length greater than any one of the two both-end magnetic poles.
Storage assembly for a vehicle for storing and dispensing a pressurised gas, comprising: - a first storage tube section (1.1) comprising a plurality of storage tubes (1.0) arranged longitudinally parallel to each other in a first layer and at least in a second layer, which are fluidically connected in a meandering manner at their axial ends by means of storage tube loops (1.01, 1.02), - at least one second storage tube section (1.2) comprising a plurality of storage tubes (1.0) arranged longitudinally parallel to one another in a first layer and at least in a second layer, which are fluidically connected in a meandering manner at their axial ends by means of storage tube loops (1.01, 1.02), and - a fluid connection means (1.12, 1.13) for fluidically connecting the first and second storage tube sections (1.1, 1.2), characterised in that - the fluid connection means (1.12, 1.13) fluidically connects the respective same axial ends of either two storage tubes (1.0) that are adjacent in the first layer on one plane or two storage tubes (1.0) that are adjacent in the second layer on one plane, and - an intermediate space is provided between the first and second storage tube sections (1.1, 1.2) for receiving a cross-member (2.1) of the body of the vehicle, which is either aligned with the second layer of the storage tubes (1.0) when the fluid connection means (1.12, 1.13) is aligned with the first layer of the storage tubes (1.0), or with the first layer of the storage tubes (1.0) when the fluid connection means (1.12) is aligned with the second layer of the storage tubes (1.0). - a first storage tube section (1.1) comprising a plurality of storage tubes (1.0) arranged longitudinally parallel to each other in a first layer and at least in a second layer, which are fluidically connected in a meandering manner at their axial ends by means of storage tube loops (1.01, 1.02), - at least one second storage tube section (1.2) comprising a plurality of storage tubes (1.0) arranged longitudinally parallel to one another in a first layer and at least in a second layer, which are fluidically connected in a meandering manner at their axial ends by means of storage tube loops (1.01, 1.02), and - a fluid connection means (1.12, 1.13) for fluidically connecting the first and second storage tube sections (1.1, 1.2), characterised in that - the fluid connection means (1.12, 1.13) fluidically connects the respective same axial ends of either two storage tubes (1.0) that are adjacent in the first layer on one plane or two storage tubes (1.0) that are adjacent in the second layer on one plane, and - an intermediate space is provided between the first and second storage tube sections (1.1, 1.2) for receiving a cross-member (2.1) of the body of the vehicle, which is either aligned with the second layer of the storage tubes (1.0) when the fluid connection means (1.12, 1.13) is aligned with the first layer of the storage tubes (1.0), or with the first layer of the storage tubes (1.0) when the fluid connection means (1.12) is aligned with the second layer of the storage tubes (1.0).
An insulated hood for a paper machine, which hood comprises - a frame structure, - a roof connected to the frame structure, and - walls connected to the frame structure, and/or - at least one door element, wherein at least a wall, a door element or the roof has been constructed by arranging at least a first element and a second element in contact with each other so that a long side edge of the first element is in contact with a long side edge of the second element, and which elements (10, 11) comprise - two essentially parallel surfaces (12a, 12b), i.e. a first planar surface and a second planar surface, which surfaces are arranged at a distance from one another, - an insulation material between the surfaces, whereby the gap between the first and the second surface comprising the insulation material is free of frame structures, characterized in that the frame structure is a self-supporting construction and by watertight edges, which comprise a sealant and/or a water resistive tape, which has been arranged at least over the visible insulation material on the edges of the elements (10, 11). - a frame structure, - a roof connected to the frame structure, and - walls connected to the frame structure, and/or - at least one door element, - two essentially parallel surfaces (12a, 12b), i.e. a first planar surface and a second planar surface, which surfaces are arranged at a distance from one another, - an insulation material between the surfaces, whereby the gap between the first and the second surface comprising the insulation material is free of frame structures, characterized in that the frame structure is a self-supporting construction and by watertight edges, which comprise a sealant and/or a water resistive tape, which has been arranged at least over the visible insulation material on the edges of the elements (10, 11).
A method for performing three-dimensional magnetic resonance elastography, MRE, using a magnetic resonance imaging, MRI, apparatus, the method comprising: inducing a plurality of three-dimensional shear or compressional waves in an anatomical region of interest in a patient; performing image acquisition during a single patient breath-hold by applying a multi-slice gradient echo, GRE, imaging sequence, in combination with an in-plane acceleration technique, to the anatomical region of interest; and obtaining an image of the anatomical region comprising a first image slice and a second image slice, wherein the first slice and the second slice are partly overlaid in the image, wherein applying a multi-slice GRE imaging sequence comprises: applying a motion encoding gradient on three axes simultaneously, and synchronising the application of the multi-slice GRE imaging sequence to mechanical vibrations in the anatomical region of interest caused by the three-dimensional shear or compressional waves comprising applying a constant delay after each imaging shot within the multi-slice GRE imaging sequence. inducing a plurality of three-dimensional shear or compressional waves in an anatomical region of interest in a patient; performing image acquisition during a single patient breath-hold by applying a multi-slice gradient echo, GRE, imaging sequence, in combination with an in-plane acceleration technique, to the anatomical region of interest; and obtaining an image of the anatomical region comprising a first image slice and a second image slice, wherein the first slice and the second slice are partly overlaid in the image, applying a motion encoding gradient on three axes simultaneously, and synchronising the application of the multi-slice GRE imaging sequence to mechanical vibrations in the anatomical region of interest caused by the three-dimensional shear or compressional waves comprising applying a constant delay after each imaging shot within the multi-slice GRE imaging sequence.
A reinforced refractory container comprising: (a) a cast refractory container (10;110) having a sidewall (11;119) which defines an interior volume (12;112), the sidewall (11;119) having inner and outer surfaces, said container sidewall (11; 119) cast from a refractory castable; and (b) a wound, continuous fiber tensile reinforcement structure comprising a tensile fiber preform (30; 130) having a tubular section (33;133) with an open weave fiber wall having open interstices between the fibers, with the refractory castable penetrating the open interstices such that the tensile fiber preform (30;130) is completely encapsulated within the container sidewall (11; 119). (a) a cast refractory container (10;110) having a sidewall (11;119) which defines an interior volume (12;112), the sidewall (11;119) having inner and outer surfaces, said container sidewall (11; 119) cast from a refractory castable; and (b) a wound, continuous fiber tensile reinforcement structure comprising a tensile fiber preform (30; 130) having a tubular section (33;133) with an open weave fiber wall having open interstices between the fibers, with the refractory castable penetrating the open interstices such that the tensile fiber preform (30;130) is completely encapsulated within the container sidewall (11; 119).
A low-hydrogen coated electrode comprising a core wire and a covering material, wherein either the core wire or both of the core wire and the covering material consists of, as alloy components, C: from 0.01 to 0.15 mass%, Si: from 0.5 to 1.5 mass%, Mn: from 0.4 to 2.0 mass%, Cr: from 3.0 to 9.0 mass%, Mo: from 0.01 to 1.50 mass%, Fe: from 55 to 70 mass%, optionally Ni: 1.0 mass% or less, optionally Ti: 0.5 mass% or less, optionally V: 0.5 mass% or less, optionally Nb: 0.5 mass% or less, optionally N: 0.10 mass% or less, optionally Co: 2.0 mass% or less, and optionally W: 2.0 mass% or less, per total mass of the low-hydrogen coated electrode, and unavoidable impurities such as P and S, the covering material contains, as flux components, Ca carbonate: from 1 to 6 mass% in terms of CO 2, a metal fluoride: from 1 to 4 mass% in terms of F and SiO 2: from 5 to 15 mass%, per total mass of the low-hydrogen coated electrode, the covering material contains substantially no carbonate except for the Ca carbonate, and the low-hydrogen coated electrode satisfies both of a requirement that when a diameter of the low-hydrogen coated electrode is defined as a coating diameter and a diameter of the core wire is defined as a core wire diameter, a ratio of the coating diameter to the core wire diameter is from 1.50 to 1.80, and a requirement that the covering material has a density of from 0.200 to 0.260 g/cm 3.