mhurhangee/ep-ind-claims huggingface dataset:
A method to enforce a network policy on an application executing within a first context on a computer device, the method comprising: collecting statistics about data flow through a network socket of the first context; altering the network policy based on the collected statistics; intercepting, by an agent executing in the first context, a network socket event request from the application before the network socket event request reaches a transport layer in a network stack (25a-28a) of the first context; sending, by the agent to a security server executing in a second context, a request for a decision on whether to allow or deny the intercepted network socket event request, the request for the decision including an application identifier and a domain of the application; receiving, by the agent, the decision from the security server, the decision being an allowance or a denial of the network socket event request, the decision being based at least in part on the application identifier, the domain of the application and the altered network policy; and preventing, by the agent, the network socket event request from reaching the transport layer in the first context when the decision is the denial of the network socket event request. collecting statistics about data flow through a network socket of the first context; altering the network policy based on the collected statistics; intercepting, by an agent executing in the first context, a network socket event request from the application before the network socket event request reaches a transport layer in a network stack (25a-28a) of the first context; sending, by the agent to a security server executing in a second context, a request for a decision on whether to allow or deny the intercepted network socket event request, the request for the decision including an application identifier and a domain of the application; receiving, by the agent, the decision from the security server, the decision being an allowance or a denial of the network socket event request, the decision being based at least in part on the application identifier, the domain of the application and the altered network policy; and preventing, by the agent, the network socket event request from reaching the transport layer in the first context when the decision is the denial of the network socket event request.
A light irradiating device for irradiating an ultraviolet ray on a three-dimensional irradiating object which relatively moves along a first direction to harden an ultraviolet curable resin applied on a surface of the irradiating object, the device comprising: a plurality of LED elements (114, 114B) which is disposed on a substrate (112, 112A) along the first direction and irradiates the ultraviolet ray on the irradiating object; and a plurality of light collecting units (116, 116C, 116D, 116E) which is disposed in an optical path of each LED element (114, 114B) and forms the ultraviolet ray emitted from each LED element (114, 114B) to have a spread angle, characterized in that the ultraviolet ray which passes through the light collecting unit (116, 116C, 116D, 116E) to be directed to the irradiating object has a first light distribution peak which is inclined to an upstream side of the first direction at a first angle (δ1) and a second light distribution peak which is inclined to a downstream side of the first direction at a second angle (δ2), with respect to a second direction which is perpendicular to the first direction. a plurality of LED elements (114, 114B) which is disposed on a substrate (112, 112A) along the first direction and irradiates the ultraviolet ray on the irradiating object; and a plurality of light collecting units (116, 116C, 116D, 116E) which is disposed in an optical path of each LED element (114, 114B) and forms the ultraviolet ray emitted from each LED element (114, 114B) to have a spread angle, characterized in that the ultraviolet ray which passes through the light collecting unit (116, 116C, 116D, 116E) to be directed to the irradiating object has a first light distribution peak which is inclined to an upstream side of the first direction at a first angle (δ1) and a second light distribution peak which is inclined to a downstream side of the first direction at a second angle (δ2), with respect to a second direction which is perpendicular to the first direction.
A cartridge configured to hold a perishable dielectric load during heating thereof in a heating chamber by means of an electromagnetic field, the cartridge comprising at least one conducting container (231, 232) arranged between an emitting element for the electromagnetic field and the perishable dielectric load, the at least one conducting container (231, 232) holding dielectric matter and being configured to contact a load container holding the perishable dielectric load so as to bridge energy from the electromagnetic field into the perishable dielectric load, characterized in that the cartridge comprises a first surface configured to face the emitting element when being positioned in the heating chamber, the first surface containing a recess configured to receive any fluid having leaked out from the at least one conducting container (231, 232; 241, 242) and/or the load container.
Tester for testing integrated circuits on a silicon wafer, characterized in that the tester has a single input output connection for testing an integrated circuit and in that the tester has: - means for transferring a data frame to the integrated circuit via the input output connection, the data frame having a time reference for the data contained in the data frame, a validation field for the time reference and a data field comprising at least one test command for the integrated circuit, the time reference being equal to the duration of one bit of data, - means for receiving a data frame via the input output connection, the data of the received data frame having a duration equal to an integer multiple of the time reference and greater than or equal to twice the duration of the time reference. - means for transferring a data frame to the integrated circuit via the input output connection, the data frame having a time reference for the data contained in the data frame, a validation field for the time reference and a data field comprising at least one test command for the integrated circuit, the time reference being equal to the duration of one bit of data, - means for receiving a data frame via the input output connection, the data of the received data frame having a duration equal to an integer multiple of the time reference and greater than or equal to twice the duration of the time reference.
A telescopic sliding door system comprising at least a first and a second door leaf (3a, 3b), the second door leaf being adapted to be driven via the first door leaf so as to perform a movement in the same direction, wherein the first door leaf comprises a tappet device which cooperates with a tappet catch device arranged on the second door leaf, wherein the tappet device comprises a tappet protrusion protruding laterally from the first door leaf towards the second door leaf, and the tappet catch device comprises a catch protrusion protruding laterally from the second door leaf towards the first door leaf, wherein, for driving the second door leaf in a driving direction, the tappet protrusion of the tappet device abuts on the catch protrusion of the tappet catch device, wherein the tappet protrusion and/or the catch protrusion is/are movable in a vertical plane, which is parallel to the main plane of the first or the second door leaf, respectively, from a catch position to a release position, characterized in that the tappet catch device comprises a catch damping device, wherein the catch protrusion is connected with the catch damping device, and, when the first door leaf is moved in the driving direction and the tappet protrusion hits the catch protrusion, the catch protrusion actuates the catch damping device.
A method of processing a stream of images comprising: a) obtaining an image (22-A) of a scene with a relatively short exposure time, SET; b) obtaining an image (22-B) of the same scene with a relatively longer exposure time, LET; c) characterized by: determining motion blur characteristics for the SET image corresponding to motion within the LET image; d) applying (13,17) the motion blur characteristics to the SET image; e) blending the blurred SET image (22-C) and the LET image to provide a HDR image (22-D); and f) repeating steps a) to e) for successive pairs of images in said stream. a) obtaining an image (22-A) of a scene with a relatively short exposure time, SET; b) obtaining an image (22-B) of the same scene with a relatively longer exposure time, LET; c) characterized by: determining motion blur characteristics for the SET image corresponding to motion within the LET image; d) applying (13,17) the motion blur characteristics to the SET image; e) blending the blurred SET image (22-C) and the LET image to provide a HDR image (22-D); and f) repeating steps a) to e) for successive pairs of images in said stream.
A method for producing a pressure vessel comprising impregnating a fiber material with a photocurable resin composition comprising a vinyl ester resin, a urethane (meth)acrylate resin, and a photoinitiator, and winding the fiber material around the outer surface of a hollow vessel, characterized in that the method comprises after winding irradiating light having a wavelength of 380 to 450 nm having a sensitivity peak at 405 nm at an irradiance of 20 to 50 mW/cm 2, wherein irradiance means an irradiance in the irradiated light wavelength region measured by an illuminometer IL-1400A manufactured by International Light Corporation.
A fuel storage apparatus for forestry machines, the fuel storage apparatus comprising: a fuel storage tank for storing fuel, wherein the fuel storage tank is of a substantially rigid construction; an outer housing configured to house therein the fuel storage tank for storing said fuel; a lid, wherein the outer housing and the lid form an enclosure for enclosing the fuel storage tank, and wherein the lid is detachably or pivotably coupled to the outer housing so as to permit access to and/or removal of the fuel storage tank; a manifold arrangement comprising a plurality of fitting components for controlling access to and/or from the interior of the fuel storage tank; and a grab bar configured to facilitate handling of the fuel storage apparatus by a forestry machine or other handling equipment, wherein the fuel storage tank is at least partially constructed from a plastic material, wherein the outer housing is at least partially constructed from a metallic material, and wherein the manifold arrangement comprises a manifold plate for coupling the manifold arrangement to the fuel storage tank. a fuel storage tank for storing fuel, wherein the fuel storage tank is of a substantially rigid construction; an outer housing configured to house therein the fuel storage tank for storing said fuel; a lid, wherein the outer housing and the lid form an enclosure for enclosing the fuel storage tank, and wherein the lid is detachably or pivotably coupled to the outer housing so as to permit access to and/or removal of the fuel storage tank; a manifold arrangement comprising a plurality of fitting components for controlling access to and/or from the interior of the fuel storage tank; and a grab bar configured to facilitate handling of the fuel storage apparatus by a forestry machine or other handling equipment, wherein the fuel storage tank is at least partially constructed from a plastic material, wherein the outer housing is at least partially constructed from a metallic material, and wherein the manifold arrangement comprises a manifold plate for coupling the manifold arrangement to the fuel storage tank.
A rear portion structure of a saddle-ride type vehicle including: seat frames inclined rearward and upward toward a rear side of the vehicle and supporting a riding seat; a tail light supported on rear ends of the seat frames; and a rear cowl having an upper cowl which covers upper surfaces of the seat frames disposed below a rear portion of the riding seat and a lower cowl which covers lower surfaces of the seat frames, wherein the upper cowl includes: a first cowl; and a second cowl which is connected to a rear side of the first cowl and forms an opening upper edge portion of an opening through which the tail light is exposed, wherein the lower cowl includes: a third cowl; and a fourth cowl which is connected to a rear side of the third cowl and forms an opening lower edge portion of the opening, wherein the first cowl and the third cowl are connected to each other by a vertical connecting portion which extends in a longitudinal direction of the vehicle, characterized in that a U-shaped recessed portion having an approximately U shape which is opened at a rear end thereof as viewed in a side view is formed on the third cowl below the vertical connecting portion, and wherein the fourth cowl forms the opening lower edge portion while covering the U-shaped recessed portion as viewed in a side view. seat frames inclined rearward and upward toward a rear side of the vehicle and supporting a riding seat; a tail light supported on rear ends of the seat frames; and a rear cowl having an upper cowl which covers upper surfaces of the seat frames disposed below a rear portion of the riding seat and a lower cowl which covers lower surfaces of the seat frames, wherein the upper cowl includes: a first cowl; and a second cowl which is connected to a rear side of the first cowl and forms an opening upper edge portion of an opening through which the tail light is exposed, wherein the lower cowl includes: a third cowl; and a fourth cowl which is connected to a rear side of the third cowl and forms an opening lower edge portion of the opening, wherein the first cowl and the third cowl are connected to each other by a vertical connecting portion which extends in a longitudinal direction of the vehicle, characterized in that a U-shaped recessed portion having an approximately U shape which is opened at a rear end thereof as viewed in a side view is formed on the third cowl below the vertical connecting portion, and wherein the fourth cowl forms the opening lower edge portion while covering the U-shaped recessed portion as viewed in a side view.
A dispersion stabilizer for suspension polymerization of vinyl compounds comprising a vinyl alcohol polymer which has a saponification degree of 30 mol% or more and less than 60 mol% and a viscosity-average polymerization degree of more than 200 and less than 600, and has a terminal alkyl group having 6 to 18 carbon atoms, and in which a content of monomer units having an oxyalkylene group is 0.3 mol% or less and the relationship between the viscosity-average polymerization degree and a modification rate (in mol%) of the alkyl group satisfies Formula: 50 ≤ S × P / 1.880 < 100 wherein the relationship of Formula represents an introduction rate of a chain transfer agent having an alkyl group in the synthesis of the vinyl alcohol polymer, wherein the content S' of monomer units having an oxyalkylene group in the vinyl alcohol polymer is determined by 1 H-NMR spectrometry at room temperature using Equation: Content S ′ mol % = area of peak δ / 4 n / area of peak γ + area of peak δ / 4 n × 100 wherein the area of peak γ is derived from a proton in a main methine chain in the vinyl ester monomer unit, the area of peak δ is derived from a proton in a methylene group in the oxyalkylene unit, and n represents a unit repeating number, the modification rate of the alkyl group is determined by 1 H-NMR spectrometry at room temperature using Equation: Modification rate mol % = area of peak β / 3 / area of peak α × 100 wherein the area of peak α is derived from a proton in a main methine chain in the vinyl ester monomer unit, and the area of peak β is derived from a proton in a terminal methyl group of the alkyl group, and wherein the saponification degree of the vinyl alcohol polymer and the viscosity-average polymerization degree of the vinyl alcohol polymer are determined in accordance with the methods described in the description.
A semi-product made of a prepreg, including at least a first prepreg layer and a second prepreg layer, wherein a magnetic material layer is laid between the first prepreg layer and the second prepreg layer, and wherein when thermoplastic resin contained in the first prepreg layer and the second prepreg layer is softened, the magnetic material layer still exhibits magnetic properties and can be attracted by a magnet, characterized in that at least one of the first prepreg layer and the second prepreg layer has a cut-out portion, and the magnetic material layer is at least laid in at least one of the cut-out portions.
Silencer, in particular for internal combustion engines, preferably for passenger or commercial motor vehicles, having a perforated internal pipe for passing through exhaust gases, an external shell that is air-tight, dirt-tight, and moisture-tight, and a cavity that is formed between the internal pipe and the shell, characterized in that at least one pouch having a sheathing that is closed on all sides and having a sound-damping or sound-absorbing filling is inserted in a cavity of the silencer that is specified for damping or absorbing sound, wherein the sheathing has intermeshed glass fibres, in particular a knitted glass-fibre fabric, the filling is blown into the interior of the pouch through a mesh loop in the sheathing of the pouch, and the sheathing that is closed on all sides furthermore has ducts which are adapted to the external cross section of the internal pipe of the silencer, wherein the internal pipe runs through the duct in the sheathing.
A breathing device which is constructed as a breathing mask which can be connected to a breathing-gas hose and which has a hose coupling for the breathing-gas hose, which hose coupling is movably connected by way of a joint to a base body of the breathing mask, and in which the joint is constructed in the manner of a ball-and-socket joint and has a spherical segment-like inner part and an outer shell for guiding the inner part, characterised in that the outer shell is constructed from at least two mutually connectable shell segments (21, 22), with the first shell segment being fastened to the base body and the second shell segment being constructed in the manner of a ring.
A wireless communication apparatus comprising: an oscillator circuit configured to generate an oscillation signal corresponding to an oscillation frequency determined by at least one of a geometry, a material and operational characteristics of an antenna; and a bias generator circuit configured to reconfigure an operation region mode of a transistor included in the oscillator circuit by adjusting a bias signal in response to an enable signal, wherein, in a process of transmitting a transmission target signal, the oscillator circuit is configured to operate based on a first bias voltage in a transient state interval and operate based on a second bias voltage in a steady state interval, wherein the first bias voltage is different than the second bias voltage. an oscillator circuit configured to generate an oscillation signal corresponding to an oscillation frequency determined by at least one of a geometry, a material and operational characteristics of an antenna; and a bias generator circuit configured to reconfigure an operation region mode of a transistor included in the oscillator circuit by adjusting a bias signal in response to an enable signal, wherein, in a process of transmitting a transmission target signal, the oscillator circuit is configured to operate based on a first bias voltage in a transient state interval and operate based on a second bias voltage in a steady state interval, wherein the first bias voltage is different than the second bias voltage.
A system, comprising: a head connector; a stress member connector (234, 334, 434, 534-1, 534-2, 534-3, 634); a tail connector; a first plurality of axially aligned stress members (350-1, 350-2, 550-1, 550-2, 550-5, 550-6, 650-1, 650-2) coupled to the head connector and to the stress member connector (234, 334, 434, 534-1, 534-3, 634), entering through a first side (341, 441, 541-1, 541-2, 541-3, 641) of the stress member connector; and a second plurality of axially aligned stress members (350-3, 350-4, 550-3, 550-4, 550-T, 550-U, 650-3, 650-4) coupled to the tail connector and to the stress member connector, exiting through a second side (343, 443, 543-1, 543-2, 543-3, 643) of the stress member connector, wherein the second plurality of stress members are axially nonaligned with the first plurality of stress members. a head connector; a stress member connector (234, 334, 434, 534-1, 534-2, 534-3, 634); a tail connector; a first plurality of axially aligned stress members (350-1, 350-2, 550-1, 550-2, 550-5, 550-6, 650-1, 650-2) coupled to the head connector and to the stress member connector (234, 334, 434, 534-1, 534-3, 634), entering through a first side (341, 441, 541-1, 541-2, 541-3, 641) of the stress member connector; and a second plurality of axially aligned stress members (350-3, 350-4, 550-3, 550-4, 550-T, 550-U, 650-3, 650-4) coupled to the tail connector and to the stress member connector, exiting through a second side (343, 443, 543-1, 543-2, 543-3, 643) of the stress member connector, wherein the second plurality of stress members are axially nonaligned with the first plurality of stress members.
A three-dimensional nanocomposite material comprising a polymeric matrix consisting of at least one lyotropic, thermotropic or thermo-lyotropic, neutral or anionic polysaccharide, and a metal-based nanocomposite consisting of at least one cationic branched polysaccharide uniformly entrapping metallic nanoparticles, wherein the neutral or anionic polysaccharide is gelled by means of suitable chemical or physical gelling agents.
A method of separating cellulosic fibres and non-cellulosic fibres from a mixed fibre textile material comprising cellulosic and non-cellulosic fibres, said method comprising the steps of • mechanically disintegrating by means of shredding, grinding, grating or milling the textile material to open textile structures in the material, • contacting the mechanically opened structures with an acid at a temperature in the range of 50 to 100°C for a period of 30 to 240 minutes in a first chemical step to obtain acid-treated fibres, comprising contacting the disintegrated textile material with an acid selected from the group consisting of mineral acids, such as H 2 SO 4 and persulphuric acid, or organic acids such as formic acid, acetic acid, performic acid, peracetic acid, acidic side streams of other industrial processes including pulp mill effluents, and a mixture thereof; and • contacting the acid treated fibres with an alkaline at a temperature in the range of 50 to 200°C for a period of 30 minutes to 240 minutes in a second chemical step, comprising contacting the acid-treated fibres with an alkali selected from the group consisting of NaOH, KOH, or non-ionic organic superbases and a mixture thereof. • mechanically disintegrating by means of shredding, grinding, grating or milling the textile material to open textile structures in the material, • contacting the mechanically opened structures with an acid at a temperature in the range of 50 to 100°C for a period of 30 to 240 minutes in a first chemical step to obtain acid-treated fibres, comprising contacting the disintegrated textile material with an acid selected from the group consisting of mineral acids, such as H 2 SO 4 and persulphuric acid, or organic acids such as formic acid, acetic acid, performic acid, peracetic acid, acidic side streams of other industrial processes including pulp mill effluents, and a mixture thereof; and • contacting the acid treated fibres with an alkaline at a temperature in the range of 50 to 200°C for a period of 30 minutes to 240 minutes in a second chemical step, comprising contacting the acid-treated fibres with an alkali selected from the group consisting of NaOH, KOH, or non-ionic organic superbases and a mixture thereof.