mhurhangee/ep-ind-claims huggingface dataset:
A method of validating a user for access to a web application, in which the method includes: receiving from a web browser a request for access to the web application; in which the request comprises a web portal session cookie; at a first traffic manager, detecting the web portal session cookie provided in the request; characterised by when a web portal session cookie has been detected, checking the request for a cookie generated by the first traffic manager indicating authorisation of the user to access the application; when the cookie generated by the first traffic manager is found in the request, the first traffic manager forwards the request via an intermediate web server to a second traffic manager; in which the second traffic manager forwards the request to the application; when no cookie generated by the first traffic manager indicating authorisation of the user to access the application is found in the request, the first traffic manager forwards the request to the intermediate web server for validating and authorising the user for access to the application; in which, upon receiving a response from the intermediate web server indicating successful validation and authorisation of the user, the first traffic manager generates a cookie indicating authorisation of the user to access the application and sends the cookie to the web browser in a response to the request and; in which the response requires the web browser to resubmit the request incorporating the cookie sent in the response. receiving from a web browser a request for access to the web application; in which the request comprises a web portal session cookie; at a first traffic manager, detecting the web portal session cookie provided in the request; characterised by when a web portal session cookie has been detected, checking the request for a cookie generated by the first traffic manager indicating authorisation of the user to access the application; when the cookie generated by the first traffic manager is found in the request, the first traffic manager forwards the request via an intermediate web server to a second traffic manager; in which the second traffic manager forwards the request to the application; when no cookie generated by the first traffic manager indicating authorisation of the user to access the application is found in the request, the first traffic manager forwards the request to the intermediate web server for validating and authorising the user for access to the application; in which, upon receiving a response from the intermediate web server indicating successful validation and authorisation of the user, the first traffic manager generates a cookie indicating authorisation of the user to access the application and sends the cookie to the web browser in a response to the request and; in which the response requires the web browser to resubmit the request incorporating the cookie sent in the response.
Electrical connection between a flat part and a connecting part wherein - the flat part and the connecting part are arranged one above the other in an overlap area, - a contact surface of the flat part facing the connecting part in the overlap area has a relief-like structure and - the flat part is friction-welded, in particular ultrasonically welded, to the connecting part via the structured contact surface, wherein the contact surface is structured in a longitudinal section of the flat part before and after welding, characterized in that - the connecting part has completely penetrated into the relief-like surface of the flat part and a full-surface connection between the connecting part and the contact surface has formed. - the flat part and the connecting part are arranged one above the other in an overlap area, - a contact surface of the flat part facing the connecting part in the overlap area has a relief-like structure and - the flat part is friction-welded, in particular ultrasonically welded, to the connecting part via the structured contact surface, wherein the contact surface is structured in a longitudinal section of the flat part before and after welding, characterized in that - the connecting part has completely penetrated into the relief-like surface of the flat part and a full-surface connection between the connecting part and the contact surface has formed.
An air pollution control system (10A; 10B; 10C) comprising: a desulfurization apparatus for reducing sulfur oxide contained in flue gas supplied from a boiler; and a CO 2 recovery apparatus that includes a CO 2 absorber for reducing CO 2 contained in flue gas that has been desulfurized by the desulfurization apparatus, by an amine absorbent, and an absorbent regenerator for regenerating the amine absorbent, the air pollution control system further comprising: a flue gas discharge line (L 14) connected to a top portion of the CO 2 absorber for discharging treated flue gas from the top portion of the CO 2 absorber; and a supply line (L 15, L 16) providing a connection between the upstream side or the downstream side of the desulfurization apparatus and the flue gas discharge line (L 14) for supplying gas containing SOx from the upstream side or the downstream side of the desulfurization apparatus to the flue gas discharge line (L 14), so that remaining mist amine accompanying the treated flue gas in the flue gas discharge line (L 14) is neutralized to amine sulfate or amine sulfite, characterized by further comprising a measuring unit for measuring the remaining mist amine, wherein the supply line (L 15, L 16) is controlled to supply a sufficient amount of SOx to the remaining mist amine to neutralize the remaining mist amine, on the basis of a concentration of the remaining mist amine measured by the measuring unit. a desulfurization apparatus for reducing sulfur oxide contained in flue gas supplied from a boiler; and a CO 2 recovery apparatus that includes a CO 2 absorber for reducing CO 2 contained in flue gas that has been desulfurized by the desulfurization apparatus, by an amine absorbent, and an absorbent regenerator for regenerating the amine absorbent, the air pollution control system further comprising: a CO 2 absorber for reducing CO 2 contained in flue gas that has been desulfurized by the desulfurization apparatus, by an amine absorbent, and an absorbent regenerator for regenerating the amine absorbent, the air pollution control system further comprising: a flue gas discharge line (L 14) connected to a top portion of the CO 2 absorber for discharging treated flue gas from the top portion of the CO 2 absorber; and a supply line (L 15, L 16) providing a connection between the upstream side or the downstream side of the desulfurization apparatus and the flue gas discharge line (L 14) for supplying gas containing SOx from the upstream side or the downstream side of the desulfurization apparatus to the flue gas discharge line (L 14), so that remaining mist amine accompanying the treated flue gas in the flue gas discharge line (L 14) is neutralized to amine sulfate or amine sulfite, a measuring unit for measuring the remaining mist amine, wherein the supply line (L 15, L 16) is controlled to supply a sufficient amount of SOx to the remaining mist amine to neutralize the remaining mist amine, on the basis of a concentration of the remaining mist amine measured by the measuring unit.
Rocket engine comprising: a combustion chamber for the combustion of two components, of which one is a fuel and the other is a comburent and of which at least one is in an initial liquid state; an exhaust nozzle for the combustion products from the combustion chamber; and, for the at least one liquid component, an associated container tank and an associated feed valve able to control the supply of the liquid component from the container tank to the combustion chamber; the feed valve in turn comprising a valve body defining a sliding cylinder having a longitudinal axis, at least one inlet for inlet of the liquid component into the sliding cylinder, an outlet for outlet the liquid component from the sliding cylinder into the combustion chamber, an obturator slidably engaged in the sliding cylinder, and thrust means acting axially on a first side of the obturator to move, and normally keep, the obturator itself into a closed position of said inlet; and characterized in that it further comprises a primer device to supply the outlet with a pressurized fluid having a pressure lower than the pressure of the liquid component in the container tank; the pressurized fluid acting axially on a second side of the obturator opposite to the first side to move the obturator under the thrust of the pressurized fluid and against the action of the thrust means from its closed position into a first open position, where the inlet is partially open for enabling the liquid component to enter the sliding cylinder, to axially act on said second side against the action of the thrust means, and to move the obturator under the thrust of the liquid component from the first open position to a second open position, where the inlet is completely open; the thrust means being shaped so as to exert on the first side of the obturator a thrust lower than a thrust exerted by the pressurized fluid on the second side of the obturator itself.
An organic light emitting diode touch sensitive display including a plurality of display pixels, the display comprising: an electrode layer including a plurality of self-capacitance touch sensor electrodes, wherein each of the plurality of self-capacitance touch sensor electrodes is electrically isolated from others of the plurality of self-capacitance touch sensor electrodes; a cathode layer that is coupled to AC ground during a touch detection mode of the display and is configured to reduce a parasitic capacitance effect on the plurality of self-capacitance touch sensor electrodes, wherein the parasitic capacitance effect includes an effect from capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer, and reducing the parasitic capacitance effect includes reducing the capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer; an anode layer; an organic layer, the organic layer including a plurality of organic light emitting diodes; and an encapsulation layer disposed between the cathode layer and the electrode layer. an electrode layer including a plurality of self-capacitance touch sensor electrodes, wherein each of the plurality of self-capacitance touch sensor electrodes is electrically isolated from others of the plurality of self-capacitance touch sensor electrodes; a cathode layer that is coupled to AC ground during a touch detection mode of the display and is configured to reduce a parasitic capacitance effect on the plurality of self-capacitance touch sensor electrodes, wherein the parasitic capacitance effect includes an effect from capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer, and reducing the parasitic capacitance effect includes reducing the capacitive coupling between the plurality of self-capacitance touch sensor electrodes and the cathode layer; an anode layer; an organic layer, the organic layer including a plurality of organic light emitting diodes; and an encapsulation layer disposed between the cathode layer and the electrode layer.
A polishing composition comprising: 0.01 wt % to 20 wt% of an abrasive selected from the group consisting of silica, alumina, ceria, germania, titania, zirconia, alumina doped silica, and mixtures thereof; 0.01 wt% to 10 wt % of a water soluble aluminum compound; optionally 0.0001 wt % to 5 wt % of a pH adjusting agent; optionally 0.0001 wt% to 10 wt % of a surfactant; optionally 0.0005 wt% to 0.5 wt % of a corrosion inhibitor; optionally 0.01 wt % to 10 wt % of an oxidizing agent selected from the group consisting of peroxy-compound, oxidized halide, perboric acid, perborate, percarbonate, peroxyacid, permanganate, chromate, cerium compound, ferricyanide, and mixtures thereof; and optionally 0.1 wt % to 5 wt % of an organic acid or salt thereof; and water; wherein the polishing composition has a pH above 7. 0.01 wt % to 20 wt% of an abrasive selected from the group consisting of silica, alumina, ceria, germania, titania, zirconia, alumina doped silica, and mixtures thereof; 0.01 wt% to 10 wt % of a water soluble aluminum compound; optionally 0.0001 wt % to 5 wt % of a pH adjusting agent; optionally 0.0001 wt% to 10 wt % of a surfactant; optionally 0.0005 wt% to 0.5 wt % of a corrosion inhibitor; optionally 0.01 wt % to 10 wt % of an oxidizing agent selected from the group consisting of peroxy-compound, oxidized halide, perboric acid, perborate, percarbonate, peroxyacid, permanganate, chromate, cerium compound, ferricyanide, and mixtures thereof; and optionally 0.1 wt % to 5 wt % of an organic acid or salt thereof; and water; wherein the polishing composition has a pH above 7.
A turbine for a vertical axis wind turbine generator, comprising: - a supporting structure rotating about a central axis; - at least two blades (4a;4b), which are elongated in a longitudinal direction (C; D), operatively parallel to the central axis and connected to the supporting structure so as to rotate about the central axis along an operating trajectory, in a rotation direction, wherein the at least two blades (4a;4b), have a wing (6a;6b) having an aerofoil defining a head and a tail, wherein the head leads the tail in the rotation direction, wherein the at least two blades (4a;4b) comprise a deflector (7a; 7b) having an aerofoil defining a head and a tail, wherein the head leads the tail in the rotation direction, and positioned along the operating trajectory with its tail proximal to the head of the wing (6a; 6b), wherein the deflector (7a; 7b) is configured to oscillate about a tilt axis (E;F) which is parallel to the longitudinal axis (C; D) of the blades (4a;4b) and passes through the head of the deflector (7a; 7b), characterized in that said blades comprise a first blade and a second blade (4a,4b), coupled to the supporting structure at diametrically opposite positions relative to the operating trajectory, wherein the first blade and the second blade (4a, 4b) respectively comprise a first and a second deflector (7a, 7b), each having a head and a tail, and the tail of the first deflector is connected to the tail of the second deflector by a connecting element configured to synchronize the rotation of the first deflector and second deflector (7a, 7b) about the respective tilting axes (E, F). - a supporting structure rotating about a central axis; - at least two blades (4a;4b), which are elongated in a longitudinal direction (C; D), operatively parallel to the central axis and connected to the supporting structure so as to rotate about the central axis along an operating trajectory, in a rotation direction, wherein the at least two blades (4a;4b), have a wing (6a;6b) having an aerofoil defining a head and a tail, wherein the head leads the tail in the rotation direction, wherein the at least two blades (4a;4b) comprise a deflector (7a; 7b) having an aerofoil defining a head and a tail, wherein the head leads the tail in the rotation direction, and positioned along the operating trajectory with its tail proximal to the head of the wing (6a; 6b), wherein the deflector (7a; 7b) is configured to oscillate about a tilt axis (E;F) which is parallel to the longitudinal axis (C; D) of the blades (4a;4b) and passes through the head of the deflector (7a; 7b), characterized in that said blades comprise a first blade and a second blade (4a,4b), coupled to the supporting structure at diametrically opposite positions relative to the operating trajectory, wherein the first blade and the second blade (4a, 4b) respectively comprise a first and a second deflector (7a, 7b), each having a head and a tail, and the tail of the first deflector is connected to the tail of the second deflector by a connecting element configured to synchronize the rotation of the first deflector and second deflector (7a, 7b) about the respective tilting axes (E, F).
A sensor-controlled light device with a light housing; a lighting unit held in the light housing, which in an activated operating state emits light and in a deactivated operating state does not emit light; a lighting area arrangement, held by the light housing, for receiving a light emitted by the lighting unit, transmitting a light in the lighting area arrangement and emitting a transmitted light from a light outlet area of the lighting area arrangement; a sensor for detecting a movement and/or a presence of an object in a detection range outside the light housing; a control arrangement for influencing the operating state of the lighting unit as a function of a movement and/or presence of an object detected by the sensor in the detection range, wherein the lighting area arrangement is configured to receive the light emitted by the lighting unit onto at least one edge-side area of the lighting area arrangement, the sensor is configured as a high-frequency radar sensor and is arranged in the light housing on a rear side opposed to the light outlet area of the lighting area arrangement, the lighting area arrangement is configured so that the light outlet area has a uniform brightness distribution in the activated operating state of the lighting unit, characterized in that the light outlet area has a predefined, optically effective patterning, in order to bring about a scattering of a light transmitted in the lighting area arrangement and its exit from the light outlet area, and the patterning, preferably configured as a matrix dot form, is produced by at least a printing, gluing, painting, etching, engraving, sandblasting or a combination thereof, wherein a surface coverage of optically effective pattern elements of the patterning is variable and preferably increases, preferably continuously, with an increasing distance to the lighting unit, and on a rear surface of the lighting area arrangement to the light outlet area and/or between the high-frequency radar sensor and the rear-side face of the lighting area arrangement a colour coat arrangement is arranged, which is impervious to light but is permeable for an effective spectrum of the high-frequency radar sensor, with a uniformly pronounced, preferably white, colour, which is identical to a colour of the optically effective pattern elements of the patterning, and the light outlet area is configured with the patterning so that in the deactivated operating state of the lighting unit for an observer spaced at a minimum distance of preferably at least 0.5 metres from the light outlet area, the optically effective pattern elements of the patterning can not be detected.
An amusement device having a rail, a passenger carrier and a propelling system for propelling the passenger carrier, the propelling system comprising an electric motor to propel the passenger carrier, a power supply to power the electric motor, the power supply comprising an electrical storage element to store electrical energy, wherein the electrical storage element comprises a supercapacitor, and a control unit which is arranged to control operation of the power supply, the control unit being arranged to: - operate the power supply to charge the electrical storage element from an external power source; and - operate the power supply to power the electric motor from the electrical energy stored in the electrical storage element, to thereby propel the passenger carrier, characterized in that the propelling system is arranged in a stationary part of the amusement device, in that, in use, the charging of the electrical storage element is performed over a time period which is long with respect to a time period during which the electric motor is powered to propel the passenger carrier, and in that, in use, the control unit controls the power supply to drive the electric motor to accelerate the passenger carrier, and then the passenger carrier drives along the rail of the amusement device on its own. - operate the power supply to charge the electrical storage element from an external power source; and - operate the power supply to power the electric motor from the electrical energy stored in the electrical storage element, to thereby propel the passenger carrier,
A method of protecting a wind turbine comprising a monitoring device, the method comprising: receiving a trigger signal from the monitoring device, the trigger signal indicating that a protective measure is to be applied, starting a countdown for a predetermined countdown period and initiating a trigger signal evaluation process, if the trigger signal evaluation process determines that the trigger signal is invalid before the countdown ends: ignoring the received trigger signal, and if the countdown ends: apply the protective measure indicated by the trigger signal. receiving a trigger signal from the monitoring device, the trigger signal indicating that a protective measure is to be applied, starting a countdown for a predetermined countdown period and initiating a trigger signal evaluation process, if the trigger signal evaluation process determines that the trigger signal is invalid before the countdown ends: ignoring the received trigger signal, and if the countdown ends: apply the protective measure indicated by the trigger signal.