mhurhangee/ep-ind-claims huggingface dataset:
An ultrasound apparatus for decontaminating solid radioactive waste, the ultrasound apparatus comprising: a container having a cylindrical shape with an open top; and a plurality of ultrasonic generators attached to an outer surface of a lower portion of the container and apart from each other at predetermined intervals, wherein in a state in which the container is filled with water, solid radioactive waste is put into the water, and the ultrasound apparatus decontaminates the solid radioactive waste by using ultrasonic waves generated from the plurality of ultrasonic generators, characterized in that the lower portion of the container has a downwardly-convex hemispherical shape, and the plurality of ultrasonic generators are attached to the hemispherical lower portion of the container such that ultrasonic waves generated from the plurality of ultrasonic generators are focused on one point in the container. a container having a cylindrical shape with an open top; and a plurality of ultrasonic generators attached to an outer surface of a lower portion of the container and apart from each other at predetermined intervals, wherein in a state in which the container is filled with water, solid radioactive waste is put into the water, and the ultrasound apparatus decontaminates the solid radioactive waste by using ultrasonic waves generated from the plurality of ultrasonic generators, characterized in that the lower portion of the container has a downwardly-convex hemispherical shape, and the plurality of ultrasonic generators are attached to the hemispherical lower portion of the container such that ultrasonic waves generated from the plurality of ultrasonic generators are focused on one point in the container.
A method, comprising: receiving, by a load balancing Transmission Control Protocol, TCP, proxy server, a message from a client destined for a web server; embedding, by the load balancing TCP proxy server, in the received message an X-Forwarded Source, XFS, value identifying the client, wherein the XFS value includes at least one of a source IP address of the client and a source port designator associated with the client; forwarding, by the load balancing TCP proxy server, the received message comprising the embedded XFS value to the web server; receiving, by the web server, the message including the embedded XFS value; recovering, by the web server, the XFS value from the received message; and storing the recovered XFS value in a kernel of the web server for use by an application program executing on the web server. receiving, by a load balancing Transmission Control Protocol, TCP, proxy server, a message from a client destined for a web server; embedding, by the load balancing TCP proxy server, in the received message an X-Forwarded Source, XFS, value identifying the client, wherein the XFS value includes at least one of a source IP address of the client and a source port designator associated with the client; forwarding, by the load balancing TCP proxy server, the received message comprising the embedded XFS value to the web server; receiving, by the web server, the message including the embedded XFS value; recovering, by the web server, the XFS value from the received message; and storing the recovered XFS value in a kernel of the web server for use by an application program executing on the web server.
A process for the conversion of 2-aminoethanol to ethane-1,2-diamine and/or linear polyethylenimines of the formula H 2 N-[CH 2 CH 2 NH] n -CH 2 CH 2 NH 2 wherein n ≥ 1 comprising (i) providing a catalyst comprising a zeolitic material having the MOR framework structure comprising YO 2 and X 2 O 3, wherein Y is a tetravalent element and X is a trivalent element; (ii) providing a gas stream comprising 2-aminoethanol and ammonia; (iii) contacting the catalyst provided in (i) with the gas stream provided in (ii) for converting 2-aminoethanol to ethane-1,2-diamine and/or linear polyethylenimines, wherein the average particle size of the zeolitic material along the 002 axis of the crystallites is in the range of from 5 ± 1 nm to 55 ± 8 nm as determined by powder X-ray diffraction. (i) providing a catalyst comprising a zeolitic material having the MOR framework structure comprising YO 2 and X 2 O 3, wherein Y is a tetravalent element and X is a trivalent element; (ii) providing a gas stream comprising 2-aminoethanol and ammonia; (iii) contacting the catalyst provided in (i) with the gas stream provided in (ii) for converting 2-aminoethanol to ethane-1,2-diamine and/or linear polyethylenimines,
Method for carrying ceramic tiles or slabs along a decoration line, this latter being formed by a plurality of spray decoration stations (S1, S2, S3) arranged in series, in which said ceramic tiles or slabs are intended to enter, pass through and exit with a constant advancement speed, said decoration stations (S, S2, S3) being provided with respective internal conveyors (TS1, TS2, TS3), activated independently from one another, and with at least one independently operated connecting conveyor provided between said decoration stations (S1, S2, S3) and controlled by a control unit upon suitable consents, said method comprising: positioning at least one of said ceramic tiles or slabs upstream of a first decoration station belonging to said decoration line, occupying a total space in length less than or equal to the minimum distance between two said consecutive decoration stations (S1, S2, S3); starting introduction and transit of at least one of said ceramic tiles or slabs at the first decoration station or any of the subsequent decoration stations (S2, S3) only upon receipt of a consent indicative of the absence of further slabs or tiles on the connecting conveyor directly downstream of the decoration station (S1, S2, S3) involved.
A nonwoven fabric comprising a base having a mutually opposite first surface and second surface and extending out flat, and a plurality of protrusions protruding from the first surface of the base in a thickness direction, wherein each of the protrusions comprises a peripheral surface section standing up from the first surface of the base in the thickness direction and a top surface section having a top surface forming a crown of the each of the protrusions, a fiber density of the peripheral surface section is higher than a fiber density of the top surface section, and characterized in that the top surface section is constructed so that a top surface perimeter portion located on one side in a machine direction or an orthogonal direction with respect to the machine direction in the planar view is constructed as a section with greater thickness, while the top surface perimeter portion located on the other side in the machine direction or an orthogonal direction is constructed as a section with smaller thickness, and the section with greater thickness comprises a thickest section (21C M) which has the greatest thickness in the nonwoven fabric. each of the protrusions comprises a peripheral surface section standing up from the first surface of the base in the thickness direction and a top surface section having a top surface forming a crown of the each of the protrusions, a fiber density of the peripheral surface section is higher than a fiber density of the top surface section, and characterized in that the top surface section is constructed so that a top surface perimeter portion located on one side in a machine direction or an orthogonal direction with respect to the machine direction in the planar view is constructed as a section with greater thickness, while the top surface perimeter portion located on the other side in the machine direction or an orthogonal direction is constructed as a section with smaller thickness, and the section with greater thickness comprises a thickest section (21C M) which has the greatest thickness in the nonwoven fabric.
An explosive composition for soft and wet ground comprising: an explosive comprising an oxidiser component in a water in oil emulsion or a water gel; and a bulking agent comprising a water soluble combustible substance in the form of discrete solid particles having smooth outer surfaces so as to inhibit migration of the combustible substance from the discrete particles to the oxidiser component, characterized in that the composition comprises the explosive and the bulking agent in a proportion whereby the composition has an overall negative oxygen balance. an explosive comprising an oxidiser component in a water in oil emulsion or a water gel; and a bulking agent comprising a water soluble combustible substance in the form of discrete solid particles having smooth outer surfaces so as to inhibit migration of the combustible substance from the discrete particles to the oxidiser component, characterized in that the composition comprises the explosive and the bulking agent in a proportion whereby the composition has an overall negative oxygen balance.
Container refrigerating cabinet comprising (i) a goods space, which is open or openable towards at least one user side for rapid access to goods, with at least one receptacle for a container carrying goods, (ii) an upright structure, which encloses the goods space, with a ceiling element and a wall, (iii) a cold air supply provided in the ceiling element along the open or openable user side, and (iv) a cold air feed to the cold air supply, which comprises a main air channel, which is arranged at least partly in the wall, with an air suction intake as well as a fan arranged in the main air channel and a cold point, which is arranged in the main air channel, of a cooling unit, wherein the receptacle can be equipped by way of the user side with containers, with a front closure, which is openable for equipping with the container, with the air suction intake, characterised in that the front closure is displaceable upwardly by way of lateral rails, wherein rails are arranged at the upright structure.
A method of detecting angular misalignment of a forward-looking sensor assembly (12, 112), including a forward-looking sensor package (14, 114) and being attached to a motor vehicle, comprising: determining whether the motor vehicle is accelerating in a straight, forward direction; and if the motor vehicle is accelerating in a straight, forward direction, measuring acceleration along a first axis (Y SEN) with an inertia sensor (16, 116), fixedly attached to the forward-looking sensor package (14, 114) and outputting a respective first acceleration signal, the first axis being orthogonal to a second axis (X RAD), the second axis (X RAD) extending along a sensing direction of a forward-looking sensor; and determining whether the second axis (X RAD) is substantially parallel with a forward axis (X CG), the forward axis (X CG) extending along a direction of motion of the forward-looking sensor assembly using a method comprising: determining the value of the first acceleration signal; and comparing the value of the first acceleration signal with a predetermined threshold. determining whether the motor vehicle is accelerating in a straight, forward direction; and if the motor vehicle is accelerating in a straight, forward direction, measuring acceleration along a first axis (Y SEN) with an inertia sensor (16, 116), fixedly attached to the forward-looking sensor package (14, 114) and outputting a respective first acceleration signal, the first axis being orthogonal to a second axis (X RAD), the second axis (X RAD) extending along a sensing direction of a forward-looking sensor; and determining whether the second axis (X RAD) is substantially parallel with a forward axis (X CG), the forward axis (X CG) extending along a direction of motion of the forward-looking sensor assembly using a method comprising: determining the value of the first acceleration signal; and comparing the value of the first acceleration signal with a predetermined threshold. determining the value of the first acceleration signal; and comparing the value of the first acceleration signal with a predetermined threshold.
Panel part for a vehicle having a design part and having at least one carrier part, wherein the at least one carrier part has a basic structure and at least one support structure and is fastened to the design part with the intervention of the at least one support structure, wherein the carrier part is designed and by means of the at least one support structure fastened to the design part in such a manner that said carrier part conjointly with the design part forms a hollow profile which, when viewed in the cross section, is closed at least in portions; wherein the at least one support structure is connected to the basic structure by way of a connecting portion, which connecting portion has a reduced material thickness in comparison to the region of the basic structure, wherein the connecting portion with the reduced material thickness forms the transition towards the design part, and wherein the support structure comprises a leg which adjoins the basic structure; wherein the design part comprises two area portions which run at a mutual angle and the leg of the support structure is fastened in the apex of the angle.
A method for prostate specific antigen analysis from urine sample, preferably from urine sample of a male mammal, wherein said method comprises the steps of - providing urine sample, - preparing said urine sample for analysis, - separating PSA from said urine sample by affinity separation using PSA-binding molecules to obtain enriched PSA, - releasing glycans from the enriched PSA to obtain released PSA-glycans, - analyzing the released glycans by separation with capillary electrophoresis wherein detection of the separated released glycans is carried out by fluorescent detection. - providing urine sample, - preparing said urine sample for analysis, - separating PSA from said urine sample by affinity separation using PSA-binding molecules to obtain enriched PSA, - releasing glycans from the enriched PSA to obtain released PSA-glycans, - analyzing the released glycans by separation with capillary electrophoresis wherein detection of the separated released glycans is carried out by fluorescent detection.
An energy conversion device driven by wind power, comprising: i. a housing to protect the working components of the device from environmental damage and to insure correct flow of air through the device; ii. at least one directing element, connected to the housing; iii. air exit (201, 202) and entrance openings; iv. a transmission system; and v. lifting means for adjustment of the height of the structure above the ground or water; the energy conversion device is characterized in that the housing comprises: i. inside components forming a carousel; ii. a frame structure surrounding the components inside the housing; iii. one or more sloped surfaces inside the housing; iv. set of sails, wherein each sail is comprised of a pair of blades connected by a hinge-like structure, wherein the free end of one of said blades is connected to said sloped surface by a rail and the free end of the other of said blades is connected to a fixed point on said frame structure. i. a housing to protect the working components of the device from environmental damage and to insure correct flow of air through the device; ii. at least one directing element, connected to the housing; iii. air exit (201, 202) and entrance openings; iv. a transmission system; and v. lifting means for adjustment of the height of the structure above the ground or water; i. inside components forming a carousel; ii. a frame structure surrounding the components inside the housing; iii. one or more sloped surfaces inside the housing; iv. set of sails, wherein each sail is comprised of a pair of blades connected by a hinge-like structure, wherein the free end of one of said blades is connected to said sloped surface by a rail and the free end of the other of said blades is connected to a fixed point on said frame structure.
An electrical distribution system for distributing electrical currents between an electrical distribution network and a domestic distribution installation, wherein the electrical distribution system comprises: - a multi-source electrical switching device configured to switch between two states respectively allowing or preventing the flow of electrical currents in two electrical conduction paths each comprising a plurality of electrical conductors (L, N); - an electrical connection device connected to the output of the electrical switching device, the connection device being configured to extend the two electrical conduction paths at the output of the switching device; in which the electrical switching apparatus is configured to connect, at a first input, a first of the two electrical conduction paths to an electrical distribution network, the electrical switching device being configured to connect, at its second input, the second of the two electrical conduction paths to an auxiliary electrical source; wherein the connection device is configured to connect each electrical conduction path to one or more electrical loads (40, 42, 44) output from the electrical switching device; the electrical distribution system being characterized in that the electrical connecting device has an interconnection point in which the corresponding electrical conductors (L, N) of each electrical conduction path are connected to each other, the multi-source electrical switchgear forming a single disconnect point capable of simultaneously disconnecting from the rest of the electrical distribution network the electrical sources connected at the first and second inputs. - a multi-source electrical switching device configured to switch between two states respectively allowing or preventing the flow of electrical currents in two electrical conduction paths each comprising a plurality of electrical conductors (L, N); - an electrical connection device connected to the output of the electrical switching device, the connection device being configured to extend the two electrical conduction paths at the output of the switching device; in which the electrical switching apparatus is configured to connect, at a first input, a first of the two electrical conduction paths to an electrical distribution network, the electrical switching device being configured to connect, at its second input, the second of the two electrical conduction paths to an auxiliary electrical source; wherein the connection device is configured to connect each electrical conduction path to one or more electrical loads (40, 42, 44) output from the electrical switching device; the electrical distribution system being characterized in that the electrical connecting device has an interconnection point in which the corresponding electrical conductors (L, N) of each electrical conduction path are connected to each other, the multi-source electrical switchgear forming a single disconnect point capable of simultaneously disconnecting from the rest of the electrical distribution network the electrical sources connected at the first and second inputs.
A method for controlling an internal combustion engine arrangement connected to an exhaust gas aftertreatment system, the internal combustion engine arrangement comprising an internal combustion engine comprising a plurality of combustion cylinders; an intake system arranged in upstream fluid communication with the internal combustion engine and configured to feed intake air into the plurality of combustion cylinders; an exhaust system arranged in downstream fluid communication with the internal combustion engine and configured to convey exhaust gas away from the internal combustion engine to the exhaust gas aftertreatment system; an exhaust gas recirculation system comprising an exhaust gas recirculation conduit connected between the intake system and the exhaust system, wherein the internal combustion engine arrangement further comprises a gas feeding arrangement and a gas heating device, each arranged in fluid communication with the exhaust gas recirculation conduit, the method being characterized by: - determining a requested start of the internal combustion engine; and prior to starting the internal combustion engine: - controlling start up of the gas heating device for initiating heating of gas fed there through; and - controlling the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system. - determining a requested start of the internal combustion engine; and prior to starting the internal combustion engine: - controlling start up of the gas heating device for initiating heating of gas fed there through; and - controlling the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system. - controlling start up of the gas heating device for initiating heating of gas fed there through; and - controlling the gas feeding arrangement to direct a flow of intake air through the exhaust gas recirculation conduit from the intake system to the exhaust system, the flow of intake air being directed through the gas heating device before the intake air enters the exhaust gas aftertreatment system.
An access protection system (11, 11') comprising a first safety sensor; a second safety sensor; and an electronic control device which is in signal connection with the first and second safety sensors, wherein the first and second safety sensors are laser scanners which each form a safety protected field and which each form at least one first detection protected field (20, 21, 22, 40, 41) in operation, with the first and second safety sensors being arranged such that the first detection protected fields (20, 21, 22, 40, 41) do not overlap at least regionally, and with the electronic control device being configured (i) to trigger a safety function on a penetration of an object (29, 30, 31, 33, 35, 35') into the safety protected field of the first and/or second safety sensors; and (ii) to change the operating state of the access protection system (11, 11') when a penetration of the object (29, 30, 31, 33, 35, 35') both into the first detection protected field (20, 21, 22, 40, 41) of the first safety sensor and into the first detection protected field (20, 21, 22, 40, 41) of the second safety sensor is determined, wherein the changing of the operating state of the access protection system (11, 11') comprises an adaptation of the safety protected field of the first and/or second safety sensors. (i) to trigger a safety function on a penetration of an object (29, 30, 31, 33, 35, 35') into the safety protected field of the first and/or second safety sensors; and (ii) to change the operating state of the access protection system (11, 11') when a penetration of the object (29, 30, 31, 33, 35, 35') both into the first detection protected field (20, 21, 22, 40, 41) of the first safety sensor and into the first detection protected field (20, 21, 22, 40, 41) of the second safety sensor is determined,