mhurhangee/ep-ind-claims huggingface dataset:
A device for connecting a pylon to a pylon base fixed to the ground, wherein the device comprises: • a pylon base, • a base plate for connecting to the pylon base, • a tilting plate for connecting to the pylon, • wherein the tilting plate and the base plate are pivotally connected to each other, so that the tilting plate can be tilted relative to the base plate, • a first fastening facility by which the tilting plate and the base plate can be fixed in a substantially parallel position relative to each other, • a rotary guide enabling a rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon in a state where the pylon is connected to the tilting plate and the pylon base to the base plate and the tilting plate and the base plate are fixed in the substantially parallel position, • a second fastening facility by which the rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon can be blocked, wherein either (i) the base plate has the rotary guide and the second fastening facility is adapted to fix the base plate relative to the pylon base, or (ii) the tilting plate has the rotary guide and the second fastening facility is adapted to fix the tilting plate to the pylon. • a pylon base, • a base plate for connecting to the pylon base, • a tilting plate for connecting to the pylon, • wherein the tilting plate and the base plate are pivotally connected to each other, so that the tilting plate can be tilted relative to the base plate, • a first fastening facility by which the tilting plate and the base plate can be fixed in a substantially parallel position relative to each other, • a rotary guide enabling a rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon in a state where the pylon is connected to the tilting plate and the pylon base to the base plate and the tilting plate and the base plate are fixed in the substantially parallel position, • a second fastening facility by which the rotary motion of the pylon relative to the pylon base around a longitudinal axis of the pylon can be blocked, wherein either (i) the base plate has the rotary guide and the second fastening facility is adapted to fix the base plate relative to the pylon base, or (ii) the tilting plate has the rotary guide and the second fastening facility is adapted to fix the tilting plate to the pylon.
A chuck for holding a substrate or master electrode in an ECPR process, said chuck comprising an interaction surface for holding a master electrode or a substrate; a buffer surface circumferentially of the interaction surface; wherein the interaction surface and the buffer surface extend in substantially the same plane; characterized in that the chuck further comprises an array of at least two electrolyte injection mouths arranged in the buffer surface, the injection mouths being directed upwards and distributed on one side of the interaction surface, along a curvature adjacent to and circumventing the interaction surface, wherein an angle (α) between a first of the injection mouths in said array to a centre point of the interaction surface to a last one of the injection mouths is 270 degrees or less.
A process for joining metal clad steel structures comprising: a) providing a first metal clad section, said first metal clad section comprising a metal layer over a steel layer, with a bonding layer optionally there between, with a portion of said steel layer in an edge region not being covered by said metal layer or said bonding layer, b) providing a second metal clad section, said second metal clad section comprising a metal layer over a steel layer, with a bonding layer optionally there between, with a portion of said steel layer in an edge region not being covered by said metal layer or said bonding layer, c) locating said edge regions adjacent each other, d) welding the edge regions together, and e) cold spraying a metal powder onto the welded edge regions and over the metal layers adjacent said edge regions thereby joining the metal clad steel sections, wherein said metal is selected from Nb, Ti, Zr, Mo and W. a) providing a first metal clad section, said first metal clad section comprising a metal layer over a steel layer, with a bonding layer optionally there between, with a portion of said steel layer in an edge region not being covered by said metal layer or said bonding layer, b) providing a second metal clad section, said second metal clad section comprising a metal layer over a steel layer, with a bonding layer optionally there between, with a portion of said steel layer in an edge region not being covered by said metal layer or said bonding layer, c) locating said edge regions adjacent each other, d) welding the edge regions together, and e) cold spraying a metal powder onto the welded edge regions and over the metal layers adjacent said edge regions thereby joining the metal clad steel sections, wherein said metal is selected from Nb, Ti, Zr, Mo and W.
Method for controlling the automatic establishment of communication between a first terminal and a second terminal subsequent to a selection, by a user of the first terminal, of a contact, said method comprising a step of transmitting a command from a processing server to the first terminal in a command message, said command: - comprising an identifier of the second terminal associated with the contact selected by means of the first terminal; and - being capable of triggering a transmission, by said first terminal directly to the second terminal, of a request to establish a communication between the first terminal and the second terminal. - comprising an identifier of the second terminal associated with the contact selected by means of the first terminal; and - being capable of triggering a transmission, by said first terminal directly to the second terminal, of a request to establish a communication between the first terminal and the second terminal.
A distributed waveform recording method for event monitoring in a power distribution system, wherein the power distribution system comprises a plurality of devices communicatively connected in a plurality of hierarchical levels within the power distribution system; the plurality of devices comprising a plurality of instrument transformers along with merging units deployed as process level devices connected on a process bus within the plurality of hierarchical levels, a plurality of Intelligent Electronic Devices (IEDs), deployed as bay level devices connected on a station bus and on the process bus within the plurality of hierarchical, and plurality of client computers deployed as station level devices connected on the station bus within the plurality of hierarchical level; the distributed waveform recording method comprising the steps of: a) Having at least one process level device communicate sampled measured value data on the process bus; b) having one or more Intelligent Electronic Device configured from the plurality of IEDs to subscribe to and process the sampled measured value data communicated by the at least one process level device to identify an event; c) Having at least one IED from the said one or more configured IED based on identification of the event or at least one client computer from the plurality of client computers issued a wave-form recording trigger to one or more device from the plurality of devices in the power distribution system; d) Having the said one or more devices from the plurality of devices in the power distribution system perform waveform recording based on the issued waveform recording trigger; and wherein the data for the waveform recording performed by the said one or more devices is derived from the sampled measured value data communicated by the said at least one process level device. a) Having at least one process level device communicate sampled measured value data on the process bus; b) having one or more Intelligent Electronic Device configured from the plurality of IEDs to subscribe to and process the sampled measured value data communicated by the at least one process level device to identify an event; c) Having at least one IED from the said one or more configured IED based on identification of the event or at least one client computer from the plurality of client computers issued a wave-form recording trigger to one or more device from the plurality of devices in the power distribution system; d) Having the said one or more devices from the plurality of devices in the power distribution system perform waveform recording based on the issued waveform recording trigger; and wherein the data for the waveform recording performed by the said one or more devices is derived from the sampled measured value data communicated by the said at least one process level device.
Gas turbine compressor, comprising at least one blade tip which has an upstream leading edge and a downstream trailing edge, and a flow channel wall which is radially opposite said blade tip and in which a circumferential groove having an upstream groove edge and a downstream groove edge is arranged, at least one web being arranged in the circumferential groove, which web has a radial recess; the upstream leading edge of the blade tip being arranged in the axial direction between an upstream start of the recess and the downstream groove edge in at least one meridian section through the blade-tip-side end face of the web, characterized in that in at least the meridian section through a blade-tip-side end face of the web, an axial distance (L OL) between the upstream leading edge of the blade tip and the downstream groove edge is at least 5% and at most 40% of the chord length (S AX) between the upstream leading edge and the downstream trailing edge of the blade tip, and/or an axial distance (Δ 45) between the upstream leading edge of the blade tip and a kink of a blade-tip-side upper edge of the web in the recess is at most 10% of the chord length (S AX) between the upstream leading edge and the downstream trailing edge of the blade tip. at least one web being arranged in the circumferential groove, which web has a radial recess; the upstream leading edge of the blade tip being arranged in the axial direction between an upstream start of the recess and the downstream groove edge in at least one meridian section through the blade-tip-side end face of the web, characterized in that in at least the meridian section through a blade-tip-side end face of the web, an axial distance (L OL) between the upstream leading edge of the blade tip and the downstream groove edge is at least 5% and at most 40% of the chord length (S AX) between the upstream leading edge and the downstream trailing edge of the blade tip, and/or an axial distance (Δ 45) between the upstream leading edge of the blade tip and a kink of a blade-tip-side upper edge of the web in the recess is at most 10% of the chord length (S AX) between the upstream leading edge and the downstream trailing edge of the blade tip.
Use of a glass for photovoltaic applications, wherein the glass has a water content of < 10 mmol/liter and the following glass composition (in wt.% based on oxide) has or consists of the following: SiO 2 49-69 wt.% B 2 O 3 0-2 wt.%, preferably B 2 O 3 0 wt.%, Al 2 O 3 >4.7-19 wt.%, preferably Al 2 O 3 >5-17 wt.%, Li 2 O 0-4 wt.%, preferably Li 2 O 0-<0.3 wt.%, Na 2 O >10-18 wt.%, preferably >15-18 wt.%, K 2 O >0-8 wt.%, preferably K 2 O >0-<5 wt.%, in particular K 2 O >0-<4 wt.%, wherein the sum Li 2 O+ Na 2 O+ K 2 O is >10-19 wt.%, and MgO 0-6 wt.% CaO 0-<5 wt.% SrO 0-7 wt.%, preferably SrO 0-<0.5 wt.%, BaO 0-10 wt.%, preferably BaO 1-9 wt.%, more preferably BaO 2-4 wt.%, wherein the sum MgO+CaO+SrO+BaO is 7-15 wt.%, and F 0-3 wt.% TiO 2 0-6 wt.%, preferably TiO 2 >0.1-5 wt.%, Fe 2 O 3 >0-0.5 wt.% ZrO 2 >0-6 wt.%, preferably ZrO 2 1-6 wt.%, more preferably ZrO 2 >1.5-5 wt.%, wherein the sum BaO+ZrO 2 is 2-15 wt.%, preferably 3-15wt.%, ZnO 0-3 wt.%, preferably ZnO 0-2 wt.%, more preferably 0.3-1.8 wt.% CeO 2 0-3 wt.% WO 3 0-3 wt.% Bi 2 O 3 0-3 wt.% MoO 3 0-3 wt.%, wherein the glass contains customary refining agents such as, for example, sulfates, chlorides, Sb 2 O 3, As 2 O 3, SnO 2.
A machining apparatus, comprising: a table configured to fix a workpiece; a spindle head having a spindle to which a cutting tool is attachable; wherein the spindle includes a spindle hole; < a dummy plug attachable to the spindle hole >; a guide arranged on the spindle head, the guide extending in parallel with an axis of the spindle; an additive manufacturing head arranged on the guide, the additive manufacturing head configured to release an additive material and energy in parallel with the axis; a driving device configured to move the additive manufacturing head in parallel with the axis to move the additive manufacturing head close to the table; a supply device configured to supply the additive material and energy to the additive manufacturing head; and a moving device configured to relatively move the spindle head together with the manufacturing head to the table, characterised by <->. a table configured to fix a workpiece; a spindle head having a spindle to which a cutting tool is attachable; wherein the spindle includes a spindle hole; < a dummy plug attachable to the spindle hole >; a guide arranged on the spindle head, the guide extending in parallel with an axis of the spindle; an additive manufacturing head arranged on the guide, the additive manufacturing head configured to release an additive material and energy in parallel with the axis; a driving device configured to move the additive manufacturing head in parallel with the axis to move the additive manufacturing head close to the table; a supply device configured to supply the additive material and energy to the additive manufacturing head; and a moving device configured to relatively move the spindle head together with the manufacturing head to the table, characterised by <->.
Fuel injector for injecting fuel in a burner of a gas turbine, the fuel injector comprising a body comprising an inner hole, a valve element which is slideably arranged inside the inner hole, wherein the body comprises a fuel inlet which is formed into the body for injecting fuel into the inner hole, wherein the fuel inlet is coupleable to a fuel supply line, wherein the body comprises a first outlet channel connected to the inner hole, wherein the first outlet channel is further coupleable to a burner, wherein the valve element comprises a first passage which is formed such that in a first position of the valve element inside the inner hole, the first passage connects the fuel inlet with the first outlet channel, and in a second position of the valve element inside the inner hole, the valve element seals the fuel inlet from the first outlet channel, wherein the body comprises a second outlet channel connected to the inner hole, wherein the second outlet channel is further coupleable to the burner or a further burner, wherein the valve element is slideable inside the inner hole along a sliding direction, wherein the first outlet channel is spaced apart from the second outlet channel along the sliding direction, wherein the valve element comprises a second passage which is spaced apart from the first passage along the sliding direction, wherein the second passage is formed such that in the second position of the valve element inside the inner hole, the valve element seals the fuel inlet from the first outlet channel and from the second outlet channel, and in a third position of the valve element inside the inner hole the second passage connects the fuel inlet with the second outlet channel, wherein a fluid flow between the fuel inlet and the first outlet channel is prevented, and characterized in that the valve element comprises an inlet groove which is formed such that the fluid inlet is connected to the first passage and to the second passage. in a first position of the valve element inside the inner hole, the first passage connects the fuel inlet with the first outlet channel, and in a second position of the valve element inside the inner hole, the valve element seals the fuel inlet from the first outlet channel, in the second position of the valve element inside the inner hole, the valve element seals the fuel inlet from the first outlet channel and from the second outlet channel, and in a third position of the valve element inside the inner hole the second passage connects the fuel inlet with the second outlet channel, wherein a fluid flow between the fuel inlet and the first outlet channel is prevented, and characterized in that the valve element comprises an inlet groove which is formed such that the fluid inlet is connected to the first passage and to the second passage.
A temperature sensing catheter adapted for use in a pericardial cavity between epicardial and pericardial tissue of a heart, comprising: an elongated catheter body; and a temperature sensing array distal the catheter body, wherein the array includes at least one temperature sensing member adapted for use in the pericardial sac; wherein the array comprises an elongated body adapted to adopt a generally circular configuration, characterised by the elongated array body having a distal portion movable between a first position in alignment with the generally circular configuration and a second position spirally inward of the generally circular configuration. an elongated catheter body; and a temperature sensing array distal the catheter body, wherein the array includes at least one temperature sensing member adapted for use in the pericardial sac; wherein the array comprises an elongated body adapted to adopt a generally circular configuration, characterised by the elongated array body having a distal portion movable between a first position in alignment with the generally circular configuration and a second position spirally inward of the generally circular configuration.
A method for performing transmission electron microscopy, TEM, on a TEM specimen (1,12), wherein: • at least an area of the specimen (1,12) is thinned by scratching a surface of the specimen with a probe suitable for Scanning Probe Microscopy, SPM, • an SPM acquisition step is performed on the thinned area, • the thinned area is exposed to an electron beam and a TEM image is taken of the thinned area. • at least an area of the specimen (1,12) is thinned by scratching a surface of the specimen with a probe suitable for Scanning Probe Microscopy, SPM, • an SPM acquisition step is performed on the thinned area, • the thinned area is exposed to an electron beam and a TEM image is taken of the thinned area.
A method for treating hair comprising the steps of: • applying to the hair a first formulation, comprising an at least bi-functional Brönsted-base which is 4,7,10-Trioxa-1,13-tridecanediamine, 4,9-Dioxa-1,12-dodecanediamine or 1,11-Diamino-3,6,9-trioxaundecane, (1. Step) and • applying to the hair a second formulation, comprising an at least bi-functional Brönsted-acid which can react with the amine groups of the hair and which is maleic acid, malic acid or a mixture of fumaric acid and itaconic acid (2. Step), and at least one fatty alcohol, which is cetyl alcohol, cetearyl alcohol or 1-dodecanol, characterized in that • the first formulation is applied before the second formulation is, and the first formulation has a pH of 7 to 12 and the at least bi-functional Bronsted-base is present in a concentration range of 0,1 to 25 percent by weight, and the second formulation has a pH of 1,5 to 7, and the at least bi-functional Bronsted-acid is present in a concentration range of 0,01 to 0,99 percent by weight, and the at least one fatty alcohol, which is cetyl alcohol, cetearyl alcohol or 1-dodecanol, is present in a concentration range of 0,1 to 25 percent by weight. • applying to the hair a first formulation, comprising an at least bi-functional Brönsted-base which is 4,7,10-Trioxa-1,13-tridecanediamine, 4,9-Dioxa-1,12-dodecanediamine or 1,11-Diamino-3,6,9-trioxaundecane, (1. Step) and • applying to the hair a second formulation, comprising an at least bi-functional Brönsted-acid which can react with the amine groups of the hair and which is maleic acid, malic acid or a mixture of fumaric acid and itaconic acid (2. Step), and at least one fatty alcohol, which is cetyl alcohol, cetearyl alcohol or 1-dodecanol, • the first formulation is applied before the second formulation is, and the first formulation has a pH of 7 to 12 and the at least bi-functional Bronsted-base is present in a concentration range of 0,1 to 25 percent by weight, and the second formulation has a pH of 1,5 to 7, and the at least bi-functional Bronsted-acid is present in a concentration range of 0,01 to 0,99 percent by weight, and the at least one fatty alcohol, which is cetyl alcohol, cetearyl alcohol or 1-dodecanol, is present in a concentration range of 0,1 to 25 percent by weight.
A method for determining a direction to a land based signal-emitting object by means of a platform comprising at least two antennas (31, 32) separated by a known distance, comprising the steps of: - receiving, with each of said at least two antennas (31, 32), a signal from said signal-emitting object at first positions, - determining a first phase relation of said signal between said at least two antennas (31,32), - receiving, with each of said at least two antennas (31, 32), a signal from said signal-emitting object at at least second positions, - determining at least a second phase relation of said signal between said at least two antennas (31, 32), characterised by the steps of: - determining change(s) in position(s) of at least one antenna of said at least two antennas (31, 32) based on a change in orientation of said platform wherein said change in orientation is a roll or turn in a direction perpendicular to a travelling movement of said platform, - determining a direction to a signal-emitting object based on said first phase relation, said at least second phase relation and said change(s) in position(s) of said at least one antenna, and - repeating said above mentioned steps at least until ambiguities have been resolved with desired accuracy, wherein the at least two antennas (31, 31) are forming a long base interferometer and are mounted on said platform, wherein said platform is an airborne vehicle, and wherein the at least two antennas forms a virtual aperture when rotated from which the direction to the signal-emitting object is determined. - receiving, with each of said at least two antennas (31, 32), a signal from said signal-emitting object at first positions, - determining a first phase relation of said signal between said at least two antennas (31,32), - receiving, with each of said at least two antennas (31, 32), a signal from said signal-emitting object at at least second positions, - determining at least a second phase relation of said signal between said at least two antennas (31, 32), - determining change(s) in position(s) of at least one antenna of said at least two antennas (31, 32) based on a change in orientation of said platform wherein said change in orientation is a roll or turn in a direction perpendicular to a travelling movement of said platform, - determining a direction to a signal-emitting object based on said first phase relation, said at least second phase relation and said change(s) in position(s) of said at least one antenna, and - repeating said above mentioned steps at least until ambiguities have been resolved with desired accuracy,