mhurhangee/ep-ind-claims huggingface dataset:
Method for manufacturing a heat receiver tube for absorbing solar energy and for transferring absorbed solar energy to a heat transfer fluid which can be located inside of at least one core tube of the heat receiver tube, wherein - the core tube comprises a core tube surface with at least one solar energy absorptive coating for absorbing solar radiation; - the core tube is enveloped by at least one enveloping tube; - the enveloping tube comprises at least one enveloping tube wall which is at least partly transparent for the solar radiation; - the enveloping tube wall comprises at least one inner enveloping tube surface; - the core tube and the enveloping tube are coaxially arranged to each other such that an inner heat receiver tube space is formed which is bordered by the core tube surface and the inner enveloping tube surface; and - the heat receiver tube comprises at least one inlet port for pouring in of at least one inert gas into the inner heat receiver tube space; wherein the method comprises following steps: a) Providing of at least one precursor tube of the heat receiver tube; b) Arranging of the inlet port at the precursor tube of the heat receiver tube; and c) Pouring in of the inert gas into the inner heat receiver tube space through the inlet port; whereby - an inert gas is used which is at least one noble gas which is selected from the group consisting of Krypton and Xenon; and - a partial pressure of the inert gas in the inner heat receiver tube space results which is selected from the range between 5 mbar and 300 mbar; characterized in that - the arranging of the inlet port comprises a drilling of a hole into the enveloping tube wall; and - the drilling comprises a laser drilling. - the core tube comprises a core tube surface with at least one solar energy absorptive coating for absorbing solar radiation; - the core tube is enveloped by at least one enveloping tube; - the enveloping tube comprises at least one enveloping tube wall which is at least partly transparent for the solar radiation; - the enveloping tube wall comprises at least one inner enveloping tube surface; - the core tube and the enveloping tube are coaxially arranged to each other such that an inner heat receiver tube space is formed which is bordered by the core tube surface and the inner enveloping tube surface; and - the heat receiver tube comprises at least one inlet port for pouring in of at least one inert gas into the inner heat receiver tube space; a) Providing of at least one precursor tube of the heat receiver tube; b) Arranging of the inlet port at the precursor tube of the heat receiver tube; and c) Pouring in of the inert gas into the inner heat receiver tube space through the inlet port; - an inert gas is used which is at least one noble gas which is selected from the group consisting of Krypton and Xenon; and - a partial pressure of the inert gas in the inner heat receiver tube space results which is selected from the range between 5 mbar and 300 mbar; - the arranging of the inlet port comprises a drilling of a hole into the enveloping tube wall; and - the drilling comprises a laser drilling.
A toxin separator that separates toxin from a biological fluid, wherein the toxin is bound to protein to be present in the biological fluid, characterized in that the toxin separator includes activated carbon having a pore volume of pores having a pore diameter from 1.4 to 35 nm, as measured by a nitrogen adsorption method, of 0.06 cm 3 /g or greater and 1.0 cm 3 /g or less, and in that the activated carbon has a pore surface area of 0.10 m 2 /g or greater and 29.2 m 2 /g or less of pores having a pore diameter from 50 to 10000 nm as measured by a mercury intrusion porosimetry method. wherein the toxin is bound to protein to be present in the biological fluid, characterized in that the toxin separator includes activated carbon having a pore volume of pores having a pore diameter from 1.4 to 35 nm, as measured by a nitrogen adsorption method, of 0.06 cm 3 /g or greater and 1.0 cm 3 /g or less, and in that the activated carbon has a pore surface area of 0.10 m 2 /g or greater and 29.2 m 2 /g or less of pores having a pore diameter from 50 to 10000 nm as measured by a mercury intrusion porosimetry method.
Fastening device for connecting a pivotable furniture part, for example a furniture door, which can be raised and lowered, of a kitchen cupboard, comprising a fastening arm of a furniture hinge which has at least one hinge lever (3.1, 3.2) and is supported on a furniture body, comprising a base body and a connecting piece fixable thereto, the furniture door and the fastening arm being fixable to one another by means of the base body and the connecting piece and the base body being attached, for this purpose, to either the furniture door or the fastening arm and the connecting piece being attached to the other part (furniture door or fastening arm), which is not connected to the base body, and the base body having at least one adjustment apparatus for adjusting the position of the furniture door in relation to the furniture body, by means of which adjustment apparatus the position of the furniture door can be adjusted in relation to the furniture body orthogonally and/or in parallel with the plane of the furniture door, and the base body being designed as a multi-part presettable component which is preassembled in order to adjust the position of the furniture door, characterised in that the base body has a base plate and two adjuster plates (13, 14) which are arranged above the base plate, an adjustment means which projects beyond at least one side of the base body being provided between the base plate and the adjuster plate directly adjacent thereto in order to adjust the furniture door transversely to the longitudinal plane thereof (inclination adjustment) and a further adjustment means being provided between the two adjuster plates (13, 14), and in that the connecting piece is fastened to the furniture door or to the fastening arm without adjustment means and can be connected to the base body without adjustment means, the base body having all the adjustment means (16, 17, 18) which are provided for adjusting the position of the furniture door in relation to the furniture body, and at least one of these adjustment means (16, 17, 18) protruding beyond a surface of the base body for manual operation.
Power supply system for an AC type of coalescer, where the power supply system comprises: - a first transformer having a primary winding with first and second primary terminals (T1 P1, T1 P2) and a secondary winding with first and second secondary terminals (T1 S1, T1 S2), where the first and second secondary terminals (T1 S1, T1 S2) are provided for connection to electrodes of the coalescer; - a controllable transformer having a primary side for connection to an AC power source and a secondary side connected to first and second nodes (A, B), where the second node is connected to a second primary terminal (T1 P2) of the first transformer; - a resonant control circuit connected between the first node and the second node; - a control system for controlling the controllable transformer; characterized in that the power supply system further comprises a capacitor connected between the first node and a first primary terminal (T1 P1) of the first transformer. - a first transformer having a primary winding with first and second primary terminals (T1 P1, T1 P2) and a secondary winding with first and second secondary terminals (T1 S1, T1 S2), where the first and second secondary terminals (T1 S1, T1 S2) are provided for connection to electrodes of the coalescer; - a controllable transformer having a primary side for connection to an AC power source and a secondary side connected to first and second nodes (A, B), where the second node is connected to a second primary terminal (T1 P2) of the first transformer; - a resonant control circuit connected between the first node and the second node; - a control system for controlling the controllable transformer;
A process for production of expanded thermoplastic elastomer, said process comprising the steps of: (a) adding monomers and/or oligomers used for producing the thermoplastic elastomer with or without further starting materials into a first stage of a polymer-processing machine, (b) mixing the monomers and/or oligomers and also the optionally added further starting materials and reacting the monomers and/or oligomers to give a polymer melt in the first stage of the polymer-processing machine, (c) passing the polymer melt into a second stage of the polymer-processing machine and adding a physical blowing agent with or without further starting materials to obtain a polymer melt comprising a blowing agent, (d) molding the polymer melt comprising a blowing agent into an expanded thermoplastic elastomer. (a) adding monomers and/or oligomers used for producing the thermoplastic elastomer with or without further starting materials into a first stage of a polymer-processing machine, (b) mixing the monomers and/or oligomers and also the optionally added further starting materials and reacting the monomers and/or oligomers to give a polymer melt in the first stage of the polymer-processing machine, (c) passing the polymer melt into a second stage of the polymer-processing machine and adding a physical blowing agent with or without further starting materials to obtain a polymer melt comprising a blowing agent, (d) molding the polymer melt comprising a blowing agent into an expanded thermoplastic elastomer.
A combination imaging system, comprising: a housing (201, 202) having a base and a lid, the lid having a closed position against the base and having an open position; a contact area image sensor disposed in the base, wherein the lid shields the contact area image sensor from ambient light when the lid is in the closed position; a camera mounted in the lid, the camera comprising a lens, wherein the field of view of the camera encompasses at least a portion of an imaging area of the contact area image sensor when the lid is in the open position, and wherein the camera is configured to generate a colorimetric image when the lid is in the open position. a housing (201, 202) having a base and a lid, the lid having a closed position against the base and having an open position; a contact area image sensor disposed in the base, wherein the lid shields the contact area image sensor from ambient light when the lid is in the closed position; a camera mounted in the lid, the camera comprising a lens, wherein the field of view of the camera encompasses at least a portion of an imaging area of the contact area image sensor when the lid is in the open position, and wherein the camera is configured to generate a colorimetric image when the lid is in the open position.
Method for processing radionavigation signals, intended to be implemented by a receiver (RXj) of radionavigation signals, comprising the reception of one or more radiofrequency bands containing a set of radionavigation signals, each of which originates from a specific transmitter (SV i), each transmitter (SV i) transmitting at least one open access signal (SO i) and one secured access signal (SC i); the estimation of raw radionavigation quantities, including at least pseudo-distances and, optionally, phases, Doppler phase shifts, etc., from at least the open access signals; the computation of a navigation information item (E10, E20) on the basis of the estimated raw quantities; the communication (E12, E22) with an authentication centre by a secured communication channel, said communication comprising the transmission of the navigation information item and/or of the estimated raw quantities to the authentication centre and the reception from the authentication centre of a notification concerning the authenticity of the navigation information item and/or of the estimated raw quantities transmitted (E14, E24); the method being characterized by a first mode of operation and a second mode of operation of the receiver, the method comprising: in the first mode of operation of the receiver (RXj) of radionavigation signals, the storage of a digital snapshot at least of the secured access signals and the transmission of this digital snapshot to the authentication centre together with the navigation information item and/or the estimated raw quantities, the digital snapshot being in a defined temporal relationship with the navigation information item and/or the raw quantities transmitted; in the second mode of operation of the receiver (RXj) of radionavigation signals, the transmission, to the authentication centre, of the navigation information item and/or of the estimated raw quantities without an accompanying digital snapshot. in the first mode of operation of the receiver (RXj) of radionavigation signals, the storage of a digital snapshot at least of the secured access signals and the transmission of this digital snapshot to the authentication centre together with the navigation information item and/or the estimated raw quantities, the digital snapshot being in a defined temporal relationship with the navigation information item and/or the raw quantities transmitted; in the second mode of operation of the receiver (RXj) of radionavigation signals, the transmission, to the authentication centre, of the navigation information item and/or of the estimated raw quantities without an accompanying digital snapshot.
A compound according to formula II: or a pharmaceutically acceptable salt thereof, wherein: each X independently is O or S; each Y independently is O or S; each m independently is 0 to 20; each n independently is 1 to 6; each R A is independently hydrogen, C1-50 alkyl, C2-50 alkenyl, C2-50 alkynyl, C3-10 carbocyclyl, 3-14 membered heterocyclyl, C6-14 aryl, 5-14 membered heteroaryl or halogen; and each R B is independently hydrogen, C1-50 alkyl, C2-50 alkenyl, C2-50 alkynyl, C3-10 carbocyclyl, 3-14 membered heterocyclyl, C6-14 aryl, 5-14 membered heteroaryl or halogen. each X independently is O or S; each Y independently is O or S; each m independently is 0 to 20; each n independently is 1 to 6; each R A is independently hydrogen, C1-50 alkyl, C2-50 alkenyl, C2-50 alkynyl, C3-10 carbocyclyl, 3-14 membered heterocyclyl, C6-14 aryl, 5-14 membered heteroaryl or halogen; and each R B is independently hydrogen, C1-50 alkyl, C2-50 alkenyl, C2-50 alkynyl, C3-10 carbocyclyl, 3-14 membered heterocyclyl, C6-14 aryl, 5-14 membered heteroaryl or halogen.
A computer-implemented method comprising: receiving, from a first user, a post for a first set of users; determining a maximum scope for the post, the maximum scope defining limits for sharing the post and limits for re-sharing the post by users other than the first user, wherein the maximum scope is defined based on settings or input provided by the first user for the post, a setting by an administrator, one or more attributes, on a geographic location associated with a user of a social network, on a time specification comprising at least a start time and an end time, or on one or more logical operators; determining whether at least a portion of the first set of users is within the maximum scope for the post; in response to a determination that the portion of the first set of users is within the maximum scope for the post, providing the post to the portion of the first set of users; receiving, from a second user within the portion of the first set of users, a request to re-share the post with a third user; and in response to receiving the request: determining if the third user is within the maximum scope for the post; and foregoing providing the post to the third user if the third user is not determined to be within the maximum scope for the post. receiving, from a first user, a post for a first set of users; determining a maximum scope for the post, the maximum scope defining limits for sharing the post and limits for re-sharing the post by users other than the first user, wherein the maximum scope is defined based on settings or input provided by the first user for the post, a setting by an administrator, one or more attributes, on a geographic location associated with a user of a social network, on a time specification comprising at least a start time and an end time, or on one or more logical operators; determining whether at least a portion of the first set of users is within the maximum scope for the post; in response to a determination that the portion of the first set of users is within the maximum scope for the post, providing the post to the portion of the first set of users; receiving, from a second user within the portion of the first set of users, a request to re-share the post with a third user; and in response to receiving the request: determining if the third user is within the maximum scope for the post; and foregoing providing the post to the third user if the third user is not determined to be within the maximum scope for the post. determining if the third user is within the maximum scope for the post; and foregoing providing the post to the third user if the third user is not determined to be within the maximum scope for the post.
Hybrid cable tray comprising a first part constituting one piece having a uniform thickness, the first part forming at least a first support surface of a first accommodation for the plurality of cables, the first part having a plurality of first through holes formed by a first plurality of edges in the first part, the cable tray having two parallel extending side bars (11, 12) connected to each other by said first part, the said side bar comprises an inner side (111, 121) connected to the said first part and with at least one closed top side (113, 123) and one outer side (112, 122) and an open bottom side (55, 56), characterized in that the closed top side (113, 123) of the said side bar (11, 12) consist of two flat surfaces (61, 62) symmetrically arranged in the side bar (11, 12) with an angle α towards each other where the angle α is in the interval of 45-60°, preferably α = 50° and together providing a top edge of the closed top side (113, 123) of the side bar (11, 12).
Pitch regulation system of the individual pitch of at least two blades (10, 12, 110, 112) of a rotor (4, 104) of a wind turbine generator, the rotor (4, 104) being connected to a main shaft (6, 106) that is supported by at least a first bearing (14, 114) that carries the rotor (4, 104) and a second bearing (16, 116) that supports the other end of the shaft (6, 106) which shaft (6, 106) is further connected to a generator, wherein the pitch regulation system comprises at least two displacement sensors (18, 118, 124-130) that provides signals forming an input to the pitch regulating system used by the pitch regulating system to compensate asymmetric loads of the rotor (4, 404) by pitch regulation, characterized in that said at least two displacement sensors (18, 118, 124-130) measure the bending of the shaft (6, 106) by measuring the differential distance between the nacelle mainframe and the generator, whereby said difference forms said input to the pitch regulating system.
A vaporizing apparatus for vaporizing a liquefied gas by a way of heat exchange between the liquefied gas and heating liquid having a higher temperature than the liquefied gas, the vaporizing apparatus comprising: a plurality of heat transfer panels each including a plurality of heat transfer tubes standing and horizontally lining-up for guiding the liquefied gas; a first trough for supplying the heating liquid to an outer surface of each of the plurality of heat transfer tubes of one of the plurality of heat transfer panels; a second trough for supplying the heating liquid to an outer surface of each of the plurality of heat transfer tubes of another of the plurality of heat transfer panels; a manifold allowing the heating liquid to flow in; a first supplying pipe connecting the manifold with the first trough for supplying the heating liquid from the manifold to the first trough; wherein the vaporizing apparatus further comprising a second supplying pipe connecting the manifold with the second trough for supplying the heating liquid from the manifold to the second trough, characterized in that the second supplying pipe has a smaller flow path cross-sectional area than the first supplying pipe. a plurality of heat transfer panels each including a plurality of heat transfer tubes standing and horizontally lining-up for guiding the liquefied gas; a first trough for supplying the heating liquid to an outer surface of each of the plurality of heat transfer tubes of one of the plurality of heat transfer panels; a second trough for supplying the heating liquid to an outer surface of each of the plurality of heat transfer tubes of another of the plurality of heat transfer panels; a manifold allowing the heating liquid to flow in; a first supplying pipe connecting the manifold with the first trough for supplying the heating liquid from the manifold to the first trough; wherein the vaporizing apparatus further comprising a second supplying pipe connecting the manifold with the second trough for supplying the heating liquid from the manifold to the second trough, characterized in that the second supplying pipe has a smaller flow path cross-sectional area than the first supplying pipe.
Sensor head for a missile, comprising a sensor head housing, an electronics unit and an electronics housing around the electronics unit, wherein a) the electronics housing at least predominantly encloses the electronics unit and has a substantially rotationally symmetrical outer contour and is arranged with parallel rotation axes (24, 26) in a rotationally symmetrical cavity which is formed by the sensor head housing, b) a thermal insulation layer is arranged between the electronics housing and the sensor head housing, c) the electronics housing has an opening which runs over at least a major portion of the axial length of the electronics housing, wherein the opening is a gap between two separate housing channels (86a, 86b), and d) the electronics housing is at least partially formed by the two separate housing channels (86a, 86b). a) the electronics housing at least predominantly encloses the electronics unit and has a substantially rotationally symmetrical outer contour and is arranged with parallel rotation axes (24, 26) in a rotationally symmetrical cavity which is formed by the sensor head housing, b) a thermal insulation layer is arranged between the electronics housing and the sensor head housing, c) the electronics housing has an opening which runs over at least a major portion of the axial length of the electronics housing, wherein the opening is a gap between two separate housing channels (86a, 86b), and d) the electronics housing is at least partially formed by the two separate housing channels (86a, 86b).