mhurhangee/ep-ind-claims huggingface dataset:
A magnetic apparatus for magnetically anchoring ferrous elements, comprising a support structure in which thickness a plurality "N" of polar units are housed, said support structure identifies a first and a second side (12, 13) at the opposite surfaces with the greatest extension, each of said plurality "N" of polar units comprising: - a coil having a support of predetermined profile and an electric conductive element wound on said support, - a first magnetic core with a first coercive value, generating a first magnetic flow oriented in a first magnetic direction, - a plurality of second magnetic cores (90A, 90B) each having its own coercive value, different from said first coercive value, - a first part of the plurality of second magnetic cores (90A, 90B) generates a second magnetic flow oriented in a second magnetic direction and a second part of the plurality of second magnetic cores (90A, 90B) generates a third magnetic flow oriented in a third magnetic direction, characterized by said third magnetic direction being parallel to said first magnetic direction and having a different direction with respect to said second magnetic direction; - and in that said support of said coil defines a volume (Vint), said first magnetic core and/or said second part of the plurality of second magnetic cores (90A, 90B) being arranged at least partially inside said volume (Vint) defined by said support. - a coil having a support of predetermined profile and an electric conductive element wound on said support, - a first magnetic core with a first coercive value, generating a first magnetic flow oriented in a first magnetic direction, - a plurality of second magnetic cores (90A, 90B) each having its own coercive value, different from said first coercive value, - a first part of the plurality of second magnetic cores (90A, 90B) generates a second magnetic flow oriented in a second magnetic direction and a second part of the plurality of second magnetic cores (90A, 90B) generates a third magnetic flow oriented in a third magnetic direction, said third magnetic direction being parallel to said first magnetic direction and having a different direction with respect to said second magnetic direction; - and in that said support of said coil defines a volume (Vint), said first magnetic core and/or said second part of the plurality of second magnetic cores (90A, 90B) being arranged at least partially inside said volume (Vint) defined by said support.
A steam turbine power plant which is provided with an extra-high-pressure turbine, a high-pressure turbine, an intermediate-pressure turbine and a low-pressure turbine, and has high-temperature steam of 650°C or more introduced into the extra-high-pressure turbine, wherein the extra-high-pressure turbine, comprising: a double-structured casing which is comprised of an outer casing and an inner casing; and an outer casing cooling unit which cools the outer casing by introducing cooling steam between the outer casing and the inner casing; a turbine rotor of the extra-high-pressure turbine is formed of a heat-resisting alloy which contains in percent by weight C: 0.10-0.20, Si: 0.01-0.5, Mn: 0.01-0.5, Cr: 20-23, Co: 10-15, Mo: 8-10, Al: 0.01-1.5, Ti: 0.01-0.6, B: 0.001-0.006 and the balance of Ni and unavoidable impurities, and it is suppressed in the unavoidable impurities that Fe is 5 or less, P is 0.015 or less, S is 0.015 or less and Cu is 0.5 or less; the inner casing and a nozzle box of the extra-high-pressure turbine are formed of a heat-resisting alloy which contains in percent by weight C: 0.03-0.25, Si: 0.01-1.0, Mn: 0.01-1.0, Cr: 20-23, Mo: 8-10, Nb: 1.15-3.0, and the balance of Ni and unavoidable impurities, and it is suppressed in the unavoidable impurities that Fe is 5 or less, P is 0.015 or less, S is 0.015 or less, and Cu is 0.5 or less; and the outer casing of the extra-high-pressure turbine is formed of a cast steel which contains in percent by weight C: 0.05-0.15, Si: 0.3 or less, Mn: 0.1-1.5, Ni: 1.0 or less, Cr: 9 or more and less than 10, V: 0.1-0.3, Mo: 0.6-1.0, W: 1.5-2.0, Co: 1.0-4.0, Nb: 0.02-0.08, B: 0.001-0.008, N: 0.005-0.1, Ti: 0.001-0.03 and the balance of Fe and unavoidable impurities. a double-structured casing which is comprised of an outer casing and an inner casing; and an outer casing cooling unit which cools the outer casing by introducing cooling steam between the outer casing and the inner casing; a turbine rotor of the extra-high-pressure turbine is formed of a heat-resisting alloy which contains in percent by weight C: 0.10-0.20, Si: 0.01-0.5, Mn: 0.01-0.5, Cr: 20-23, Co: 10-15, Mo: 8-10, Al: 0.01-1.5, Ti: 0.01-0.6, B: 0.001-0.006 and the balance of Ni and unavoidable impurities, and it is suppressed in the unavoidable impurities that Fe is 5 or less, P is 0.015 or less, S is 0.015 or less and Cu is 0.5 or less; the inner casing and a nozzle box of the extra-high-pressure turbine are formed of a heat-resisting alloy which contains in percent by weight C: 0.03-0.25, Si: 0.01-1.0, Mn: 0.01-1.0, Cr: 20-23, Mo: 8-10, Nb: 1.15-3.0, and the balance of Ni and unavoidable impurities, and it is suppressed in the unavoidable impurities that Fe is 5 or less, P is 0.015 or less, S is 0.015 or less, and Cu is 0.5 or less; and the outer casing of the extra-high-pressure turbine is formed of a cast steel which contains in percent by weight C: 0.05-0.15, Si: 0.3 or less, Mn: 0.1-1.5, Ni: 1.0 or less, Cr: 9 or more and less than 10, V: 0.1-0.3, Mo: 0.6-1.0, W: 1.5-2.0, Co: 1.0-4.0, Nb: 0.02-0.08, B: 0.001-0.008, N: 0.005-0.1, Ti: 0.001-0.03 and the balance of Fe and unavoidable impurities.
A method performed by a radio node for handling provision of a service to a wireless device in a wireless communication network, which wireless communication network comprises an access network node serving the radio node over a connection; the method comprising - transmitting an indication to the wireless device, which indication indicates type and/or capacity, for the wireless device or the radio node, of the connection between the radio node and the access network node, wherein the indication indicates whether the radio node is connected to the access network node over the connection with a limited quota of data or not, and wherein the indication indicates whether the radio node is connected to the access network node over a wireless connection or a wired connection, wherein the indication is transmitted in response to a connection request from the wireless device, and characterized in that the indication controls a configuration of policies in the wireless device. - transmitting an indication to the wireless device, which indication indicates type and/or capacity, for the wireless device or the radio node, of the connection between the radio node and the access network node, wherein the indication indicates whether the radio node is connected to the access network node over the connection with a limited quota of data or not, and wherein the indication indicates whether the radio node is connected to the access network node over a wireless connection or a wired connection, wherein the indication is transmitted in response to a connection request from the wireless device, and characterized in that the indication controls a configuration of policies in the wireless device.
A separated communications device comprising: a body and a movable connector; the body comprises an antenna and a first conductive strip, and the antenna is electrically connected to the first conductive strip, wherein the first conductive strip is electrically conductive; the movable connector comprises a second conductive strip, wherein the movable connector is an auxiliary detachable function module and the second conductive strip is electrically conductive; the second conductive strip is connected to the first conductive strip when the body is connected to the movable connector; and a connection position is set on the body, wherein when the movable connector is connected to the body, the connection position refers to a part, covered by the movable connector due to the connection, on a surface of the body, and the antenna is disposed on the body near the connection position. a body and a movable connector; the body comprises an antenna and a first conductive strip, and the antenna is electrically connected to the first conductive strip, wherein the first conductive strip is electrically conductive; the movable connector comprises a second conductive strip, wherein the movable connector is an auxiliary detachable function module and the second conductive strip is electrically conductive; the second conductive strip is connected to the first conductive strip when the body is connected to the movable connector; and a connection position is set on the body, wherein when the movable connector is connected to the body, the connection position refers to a part, covered by the movable connector due to the connection, on a surface of the body, and the antenna is disposed on the body near the connection position.
Circuit device for safely disconnecting a semiconductor switching element, in particular a MOSFET, wherein - the semiconductor switching element has a gate terminal, a source terminal and a drain terminal, wherein a current path between the drain terminal and the source terminal is reversibly disconnectable by means of the gate terminal during operation of the semiconductor switching element, and - the gate terminal has a gate voltage potential (U G) and the source terminal has a source voltage potential (U S), - wherein a fuse unit is arranged between the gate terminal and the source terminal, characterized - in that the fuse unit is configured and designed to electrically connect the gate terminal to the source terminal depending on a voltage potential difference (ΔU) between the gate voltage potential (U G) and the source voltage potential (U S) after disconnection of the current path, such that the gate voltage potential (U G) and the source voltage potential (U S) are matched. - the semiconductor switching element has a gate terminal, a source terminal and a drain terminal, wherein a current path between the drain terminal and the source terminal is reversibly disconnectable by means of the gate terminal during operation of the semiconductor switching element, and - the gate terminal has a gate voltage potential (U G) and the source terminal has a source voltage potential (U S), - wherein a fuse unit is arranged between the gate terminal and the source terminal, characterized - in that the fuse unit is configured and designed to electrically connect the gate terminal to the source terminal depending on a voltage potential difference (ΔU) between the gate voltage potential (U G) and the source voltage potential (U S) after disconnection of the current path, such that the gate voltage potential (U G) and the source voltage potential (U S) are matched.
A system comprising: a bellows assembly configured to mount in a space between a stem and a gland of a valve assembly, wherein the valve assembly comprises a ball valve assembly having a ball disposed in a chamber of a housing, the stem is coupled to the ball, wherein the stem extends through the gland and interfaces with the ball such that rotation of the stem adjusts position of the ball, wherein the bellows assembly comprises: a bellows comprising first and second annular protrusions (100, 102) at first and second axial ends (104, 106) of the bellows, wherein at the first end, the first annular protrusion forms a dynamic metal-to-metal seal with the gland and at the second end, the second annular protrusion forms a dynamic metal-to-metal seal with a lip of the stem; wherein the bellows assembly further comprises a spacer ring, wherein the bellows is configured to compress until a gap is closed relative to the spacer ring, the bellows assembly is configured to bear a load through the bellows before the gap is closed, and the bellows assembly is configured to bear the load through the bellows and the spacer ring after the gap is closed; and further wherein the spacer ring further comprises a recess on a radially extending exterior side of the spacer ring and the bellow assembly further comprises an anti-blowout ring, wherein the anti-blowout ring extends into the recess on the radially exterior side of the spacer ring. a bellows comprising first and second annular protrusions (100, 102) at first and second axial ends (104, 106) of the bellows, wherein at the first end, the first annular protrusion forms a dynamic metal-to-metal seal with the gland and at the second end, the second annular protrusion forms a dynamic metal-to-metal seal with a lip of the stem; wherein the bellows assembly further comprises a spacer ring, wherein the bellows is configured to compress until a gap is closed relative to the spacer ring, the bellows assembly is configured to bear a load through the bellows before the gap is closed, and the bellows assembly is configured to bear the load through the bellows and the spacer ring after the gap is closed; and further wherein the spacer ring further comprises a recess on a radially extending exterior side of the spacer ring and the bellow assembly further comprises an anti-blowout ring, wherein the anti-blowout ring extends into the recess on the radially exterior side of the spacer ring.
Optical effect layer (202; 300; 310; OEL) comprising a binder material being at least partially transparent to electromagnetic radiation of one or more wavelengths in the range of 200 nm to 2500 nm; and a plurality of non-spherical particles (200; 302 to 305; 312) having a non-isotropic reflectivity and being dispersed within said binder material and oriented according to a pattern extending over a length along a first direction (x) within an extended surface (306; 313) of the optical effect layer, characterized in that in a first cross-section (308; 311) of said optical effect layer substantially perpendicular to said extended surface (306; 313) and along said first direction (x), the local average of an angle between (i) a straight line along an observed longest dimension within the corresponding cross-section shape of those non-spherical particles (200; 302 to 305; 312) which intersect with said first cross-section (308; 311), and (ii) said first direction (x) varies according to a function (θ) of a position along said first direction(x), which function is the sum of a monotonically increasing or decreasing first function (θ 1) of said position and an alternating second function (θ 2) of said position such that, if the viewing angle of the optical effect layer changes, a pattern of bright and dark areas on the extended surface of the optical effect layer will appear to move along the first direction (x). (i) a straight line along an observed longest dimension within the corresponding cross-section shape of those non-spherical particles (200; 302 to 305; 312) which intersect with said first cross-section (308; 311), and (ii) said first direction (x)
An abrasive article comprising: a backing comprising a first major surface and an opposing second major surface; an abrasive layer bonded to at least a portion of the first major surface, the abrasive layer comprising abrasive particles retained in a make layer; and an anti-loading size layer at least partially disposed on the abrasive layer and comprising a cured size precursor, wherein the size precursor comprises a urea formaldehyde size binder at a concentration of at least 20 percent by weight of the precursor and a modified polyethylenewax at a concentration of no greater than about 20 percent by weight of the precursor. a backing comprising a first major surface and an opposing second major surface; an abrasive layer bonded to at least a portion of the first major surface, the abrasive layer comprising abrasive particles retained in a make layer; and an anti-loading size layer at least partially disposed on the abrasive layer and comprising a cured size precursor, wherein the size precursor comprises a urea formaldehyde size binder at a concentration of at least 20 percent by weight of the precursor and a modified polyethylenewax at a concentration of no greater than about 20 percent by weight of the precursor.
A process for preparing silicate shell microcapsules, comprising adding a water reactive silicon compound to an oil in water emulsion, thereby condensing and polymerizing the water reactive silicon compound to form silicate shell microcapsules having a core comprising the oil phase of the said emulsion, characterized in that the water reactive silicon compound comprises a tetraalkoxysilane and an alkoxysilane having an amino or quaternary ammonium substituted alkyl group.
A method for vehicle-to-anything, V2X, communication, comprising: processing a message (205, 245) from a radio access network, RAN, node, the message identifying a communication mode configuration to use for V2X communication; generating a V2X message (225, 265); and communicating the V2X message via at least one of a first interface and a second interface based on the communication mode configuration, wherein the first interface comprises an air interface with the RAN node, and the second interface comprises a device-to-device, D2D, air interface with a device (105-B). processing a message (205, 245) from a radio access network, RAN, node, the message identifying a communication mode configuration to use for V2X communication; generating a V2X message (225, 265); and communicating the V2X message via at least one of a first interface and a second interface based on the communication mode configuration, wherein the first interface comprises an air interface with the RAN node, and the second interface comprises a device-to-device, D2D, air interface with a device (105-B).
A method for determining an estimation of a topological support of a tubular based structure comprising an inner wall and a plurality of distinct regions, said method comprising: a) obtaining image data representative of the tubular based structure; b) placing an initial seed in an initial region selected from one of said distinct regions; c) performing an initial region growing until an initial resulting area comprises at least a portion of said inner wall and at least a portion of a neighboring region corresponding to one of said distinct regions; d) starting a tree comprising an initial tree node corresponding to said initial region; e) for each neighboring region: placing a subsequent seed in said neighboring region; performing a corresponding subsequent region growing until a subsequent resulting area comprises at least a portion of said inner wall and at least a portion of an additional neighboring region; and adding a tree node corresponding to said neighboring region in said tree; f) performing processing step e) for each of said additional neighboring regions; g) filtering said tree according to predetermined topological parameters to thereby determine said estimation of said topological support of the tubular based structure; and h) performing at least one of storing and displaying at least one part of the estimation of said topological support of the tubular based structure. a) obtaining image data representative of the tubular based structure; b) placing an initial seed in an initial region selected from one of said distinct regions; c) performing an initial region growing until an initial resulting area comprises at least a portion of said inner wall and at least a portion of a neighboring region corresponding to one of said distinct regions; d) starting a tree comprising an initial tree node corresponding to said initial region; e) for each neighboring region: placing a subsequent seed in said neighboring region; performing a corresponding subsequent region growing until a subsequent resulting area comprises at least a portion of said inner wall and at least a portion of an additional neighboring region; and adding a tree node corresponding to said neighboring region in said tree; placing a subsequent seed in said neighboring region; performing a corresponding subsequent region growing until a subsequent resulting area comprises at least a portion of said inner wall and at least a portion of an additional neighboring region; and adding a tree node corresponding to said neighboring region in said tree; f) performing processing step e) for each of said additional neighboring regions; g) filtering said tree according to predetermined topological parameters to thereby determine said estimation of said topological support of the tubular based structure; and h) performing at least one of storing and displaying at least one part of the estimation of said topological support of the tubular based structure.
A shared memory, made on a first integrated circuit based on semi-conductors, comprising: • an integer number m, greater than one, of input/output interfaces (EP/SP, SP'), each of the m input/output interfaces comprising 1 data input/output (EP/SP) and 1 address and control input (SP'); • an integer number p, greater than one, of memory banks (21, 22, 23, 30), each memory bank (21, 22, 23, 30) comprising: - a memory (210, 220, 230, 300) comprising a data input/output (E/S) and an address and control input; - a block of m switches (214, 224, 234), each of the m switches (214, 224, 234) being connected via a memory data bus (213, 223, 233) to the data input/output (E/S) of the memory (210, 220, 230, 300), the shared memory being characterised in that it comprises: • m bidirectional data buses, each of the m data buses being respectively connected to one of the m data inputs/outputs (EP/SP) of the shared memory on the one hand and being connected, on the other hand, to each of the p memory banks by means of one of the m switches of each memory bank, • m address and control buses, each being connected to one of the m address and control inputs of the shared memory on the one hand, and being connected on the other hand to the address and control input of each of the p memory banks by means of a multiplexer (211, 221, 231) provided in each memory bank. • an integer number m, greater than one, of input/output interfaces (EP/SP, SP'), each of the m input/output interfaces comprising 1 data input/output (EP/SP) and 1 address and control input (SP'); • an integer number p, greater than one, of memory banks (21, 22, 23, 30), each memory bank (21, 22, 23, 30) comprising: - a memory (210, 220, 230, 300) comprising a data input/output (E/S) and an address and control input; - a block of m switches (214, 224, 234), each of the m switches (214, 224, 234) being connected via a memory data bus (213, 223, 233) to the data input/output (E/S) of the memory (210, 220, 230, 300), - a memory (210, 220, 230, 300) comprising a data input/output (E/S) and an address and control input; - a block of m switches (214, 224, 234), each of the m switches (214, 224, 234) being connected via a memory data bus (213, 223, 233) to the data input/output (E/S) of the memory (210, 220, 230, 300), • m bidirectional data buses, each of the m data buses being respectively connected to one of the m data inputs/outputs (EP/SP) of the shared memory on the one hand and being connected, on the other hand, to each of the p memory banks by means of one of the m switches of each memory bank, • m address and control buses, each being connected to one of the m address and control inputs of the shared memory on the one hand, and being connected on the other hand to the address and control input of each of the p memory banks by means of a multiplexer (211, 221, 231) provided in each memory bank.