mhurhangee/ep-ind-claims huggingface dataset:
An axial-flow exhaust turbine comprising: a steam passage in which rotor blades and stator blades are arranged in rows; an exhaust chamber for discharging steam from the steam passage in a turbine axial direction disposed at a downstream side of the steam passage; a casing including a first casing which forms the steam passage and a second casing which forms the exhaust chamber; an inner partition wall (30;100) disposed on an inner circumferential side of the second casing of the casing so as to face the exhaust chamber; and a drain flow channel which is formed between the second casing and the inner partition wall (30;100) and through which a drain collected from the steam passage can be passed, wherein the inner partition wall (30;100) is supported on the second casing of the casing so as to be attachable and detachable. a steam passage in which rotor blades and stator blades are arranged in rows; an exhaust chamber for discharging steam from the steam passage in a turbine axial direction disposed at a downstream side of the steam passage; a casing including a first casing which forms the steam passage and a second casing which forms the exhaust chamber; an inner partition wall (30;100) disposed on an inner circumferential side of the second casing of the casing so as to face the exhaust chamber; and a drain flow channel which is formed between the second casing and the inner partition wall (30;100) and through which a drain collected from the steam passage can be passed,
A blended structure for forming a combustor shell or bulkhead, comprising: a metal portion at least partially defining a stress relief opening and a metal mating surface (120, 126, 140) disposed on the metal portion; a gradient transition portion formed integrally with the metal portion; and a ceramic portion formed integrally with the gradient transition portion; characterised in that: the gradient transition portion includes a percent by weight of ceramic material defined by a smooth function of position along the gradient transition portion; the gradient transition portion is formed integrally with the ceramic portion and the metal portion by additive manufacturing; and the metal mating surface (120, 126, 140) is configured to receive a fastener. a metal portion at least partially defining a stress relief opening and a metal mating surface (120, 126, 140) disposed on the metal portion; a gradient transition portion formed integrally with the metal portion; and a ceramic portion formed integrally with the gradient transition portion; the gradient transition portion includes a percent by weight of ceramic material defined by a smooth function of position along the gradient transition portion; the gradient transition portion is formed integrally with the ceramic portion and the metal portion by additive manufacturing; and the metal mating surface (120, 126, 140) is configured to receive a fastener.
A kitchen extractor hood, provided with means for generating a first flow (A, B) of a gaseous mixture taken from the internal environment in which the hood is located and releasing it into the external environment, the hood being also provided with means for generating a second flow (C, D) of a gaseous mixture taken from the external environment and/or from the internal environment and injecting it into the internal environment, the hood being also provided with means for recovering part of the thermal energy contained in the first flow (A, B) and transferring it to the second flow (C, D), wherein the means for recovering thermal energy comprise a heat recovery device comprising a heat exchanger of the heat pipe type, having an evaporation section dealing with the first flow (A, B) and a condensation section dealing with the second flow (C, D), and wherein the heat recovery device based on a heat pipe exchanger comprises: - a plurality of equal pipes, arranged parallel to but spaced from each other, the pipes being hermetically closed at their two ends and containing a refrigerating fluid in the saturation condition; - a diaphragm perpendicular to the pipes, but such as not to interrupt them, which separates the first flow (A, B) from the second flow (C, D), thus separating the evaporation section from the condensation section of the heat exchanger, characterized in that upstream, with reference to the second flow (C, D), of the condensation section there are provided second flow (C, D) filtering means of the type used in hoods, that there are provided means for varying the tilt of the pipes of the heat recovery device and that the position of the diaphragm is determined as a function of the ratio between the volumetric rates of the first flow (A, B) and of the second flow (C, D), of the thermal exchange surface of the heat exchanger, and of the tilt of the pipes of the latter. - a plurality of equal pipes, arranged parallel to but spaced from each other, the pipes being hermetically closed at their two ends and containing a refrigerating fluid in the saturation condition; - a diaphragm perpendicular to the pipes, but such as not to interrupt them, which separates the first flow (A, B) from the second flow (C, D), thus separating the evaporation section from the condensation section of the heat exchanger,
A method for determining a distribution of a first polarization active compound in a coating, comprising: utilizing optical microscopy to obtain images at a plurality of planes at differing axial positions between an upper and a lower boundary of the coating; measuring a distribution of polarization activity within each of the images, wherein the distribution is based on a distribution in polarization of light within the plurality of images; constructing a three dimensional distribution based on the distribution of polarization active material within each of the plurality of images; and determining the distribution of the first polarization active compound in the coating based on the three dimensional polarization activity distribution. utilizing optical microscopy to obtain images at a plurality of planes at differing axial positions between an upper and a lower boundary of the coating; measuring a distribution of polarization activity within each of the images, wherein the distribution is based on a distribution in polarization of light within the plurality of images; constructing a three dimensional distribution based on the distribution of polarization active material within each of the plurality of images; and determining the distribution of the first polarization active compound in the coating based on the three dimensional polarization activity distribution.
A web winding apparatus comprising: two bobbins (101, 102) on which a web is to be wound; a cutter transferrable between the two bobbins (101, 102) and cutting the web to be transferred; and two web pressing members (81, 82) positioned at opposite sides of the cutter and swingable such that when one of the two web pressing members (81, 82) approaches the cutter, the other of the two web pressing members (82, 81) backs away from the cutter, the two web pressing members (81, 82) being transferrable together with the cutter between the two bobbins (101, 102), wherein upon swinging, the two web pressing members (81, 82) move towards an empty one of the two bobbins (101, 102) positioned at one of the two web pressing members (81, 82) side which has been backed away from the cutter and upon swinging, the other of the two web pressing members (82, 81) which has approached the cutter presses an end portion of the web which has been cut by the cutter on the empty bobbin (101, 102) thereby to wind the end portion of the web on the empty bobbin (101, 102) characterized in that two cutter receiving members (72, 73) are provided at respective sides in web transfer directions of the two web pressing members (81, 82) and swingable with the two web pressing members (81, 82) for cutting the web with the cutter by sandwiching the web giving a pressure together therewith. two bobbins (101, 102) on which a web is to be wound; a cutter transferrable between the two bobbins (101, 102) and cutting the web to be transferred; and two web pressing members (81, 82) positioned at opposite sides of the cutter and swingable such that when one of the two web pressing members (81, 82) approaches the cutter, the other of the two web pressing members (82, 81) backs away from the cutter, the two web pressing members (81, 82) being transferrable together with the cutter between the two bobbins (101, 102), wherein upon swinging, the two web pressing members (81, 82) move towards an empty one of the two bobbins (101, 102) positioned at one of the two web pressing members (81, 82) side which has been backed away from the cutter and upon swinging, the other of the two web pressing members (82, 81) which has approached the cutter presses an end portion of the web which has been cut by the cutter on the empty bobbin (101, 102) thereby to wind the end portion of the web on the empty bobbin (101, 102) characterized in that two cutter receiving members (72, 73) are provided at respective sides in web transfer directions of the two web pressing members (81, 82) and swingable with the two web pressing members (81, 82) for cutting the web with the cutter by sandwiching the web giving a pressure together therewith.
Arrangement for an electrical switch element, comprising a switch chamber for receiving contacts that can be closed and/or opened, at least one movable propulsion element protruding through an opening of the switch chamber to open or close the contacts, and a seal configuration surrounding the propulsion element, by which the opening is sealed at least in an end position of the propulsion element, the seal configuration having an annular bulge surrounding the opening and an annularflange on the propulsion element, wherein a stationary part of the seal configuration extends around the opening, wherein the annular bulge is part of the stationary part of the seal configuration and protrudes into the switch chamber, wherein the annular flange abuts the annular bulge in the end position of the propulsion element, wherein an element adjacent to the switch chamber is partially positioned behind the switch chamber, such that a movement space is formed between a wall section having the opening and the adjacent element, the movement space running annularly around the propulsion element, and wherein a damping configuration on the side of the opening facing away from the switch chamber is to absorb a kinetic energy of the propulsion element during transition to the end position, the damping configuration having an elastically deflectable wall section that can deviate elastically from the switch chamber characterized by the elastically deflectable wall section being part of the wall section having the opening, the elastically deflectable wall section being able to deviate elastically into the movement space so as to absorb the movement of the propulsion element in its resting position, the movement space and the wall section being part of the seal configuration.
A method for determining the earth response to an electromagnetic signal using a source for transmitting the electromagnetic signal to at least one receiver in water, the method comprising: measuring a first electromagnetic response at a first source-receiver separation; measuring a second electromagnetic response at a large second source-receiver separation where an earth response is negligible; determining from the second electromagnetic response an airwave response at the second source-receiver separation; and using the determined airwave response and the measured first electromagnetic response to determine an earth response at the first source-receiver separation, characterised in that using the determined airwave response and the measured first electromagnetic response to determine an earth response at the first source-receive separation comprises: finding an inverse filter f(t) of the determined airwave response â ( t); convolving the filter f(t) with the measured response at the first source-receiver separation to provide a result that includes an airwave impulse; removing the airwave impulse from the result of the convolution to leave a remainder; and convolving the remainder with the determined airwave response â(t) to recover the earth response at the first source-receiver separation without the airwave. measuring a first electromagnetic response at a first source-receiver separation; measuring a second electromagnetic response at a large second source-receiver separation where an earth response is negligible; determining from the second electromagnetic response an airwave response at the second source-receiver separation; and using the determined airwave response and the measured first electromagnetic response to determine an earth response at the first source-receiver separation, characterised in that using the determined airwave response and the measured first electromagnetic response to determine an earth response at the first source-receive separation comprises: finding an inverse filter f(t) of the determined airwave response â ( t); convolving the filter f(t) with the measured response at the first source-receiver separation to provide a result that includes an airwave impulse; removing the airwave impulse from the result of the convolution to leave a remainder; and convolving the remainder with the determined airwave response â(t) to recover the earth response at the first source-receiver separation without the airwave. finding an inverse filter f(t) of the determined airwave response â ( t); convolving the filter f(t) with the measured response at the first source-receiver separation to provide a result that includes an airwave impulse; removing the airwave impulse from the result of the convolution to leave a remainder; and convolving the remainder with the determined airwave response â(t) to recover the earth response at the first source-receiver separation without the airwave.
A method of screening a soluble target protein, which is a heavy chain variable domain of an immunoglobulin, the method comprising: inoculating a library comprising E. coli cells transformed with pET-TAPE (Tat-associated protein engineering) vector comprising a gene construct coding a fusion protein, which comprises a pathway signal sequence of Tat substrate protein TorA ( E. coli trimethylamine N-oxide reductase) to an N-terminal of a target protein and TEM-1 beta-lactamase to a C-terminal of a target protein in pET vector, to a liquid medium containing an antibiotic and collecting surviving host cells to collect plasmid DNA; collecting a nucleic acid sequence coding the target protein from the collected plasmid DNA; and confirming and screening a sequence of the target protein from the collected nucleic acid sequence. inoculating a library comprising E. coli cells transformed with pET-TAPE (Tat-associated protein engineering) vector comprising a gene construct coding a fusion protein, which comprises a pathway signal sequence of Tat substrate protein TorA ( E. coli trimethylamine N-oxide reductase) to an N-terminal of a target protein and TEM-1 beta-lactamase to a C-terminal of a target protein in pET vector, to a liquid medium containing an antibiotic and collecting surviving host cells to collect plasmid DNA; collecting a nucleic acid sequence coding the target protein from the collected plasmid DNA; and confirming and screening a sequence of the target protein from the collected nucleic acid sequence.
A method, comprising: receiving (402; 502) a request for a service for a subscriber at an access gateway; receiving (406; 506), at the access gateway from a first source, a default subscriber policy and a default service policy for the subscriber; receiving (408; 508), at the access gateway from a second source, a specific subscriber policy and a specific service policy for the subscriber and the service being requested, wherein the first source is physically separate from the second source; if the specific subscriber policy and the specific service policy are different to the default subscriber policy and the default service policy (410; 510), providing (414; 514), at the access gateway, correlation and discrepancy resolution between the default subscriber policy and the specific subscriber policy and between the default service policy and the specific service policy; receiving the service being requested at the access gateway; and communicating (416; 516) the service being requested from the access gateway to the subscriber in response to the request. receiving (402; 502) a request for a service for a subscriber at an access gateway; receiving (406; 506), at the access gateway from a first source, a default subscriber policy and a default service policy for the subscriber; receiving (408; 508), at the access gateway from a second source, a specific subscriber policy and a specific service policy for the subscriber and the service being requested, wherein the first source is physically separate from the second source; if the specific subscriber policy and the specific service policy are different to the default subscriber policy and the default service policy (410; 510), providing (414; 514), at the access gateway, correlation and discrepancy resolution between the default subscriber policy and the specific subscriber policy and between the default service policy and the specific service policy; receiving the service being requested at the access gateway; and communicating (416; 516) the service being requested from the access gateway to the subscriber in response to the request.
A motor stator, comprising: a stator core, wherein an outer surface of the stator core is connected to an inner surface of the stator core through a plurality of stator slots; and at least one flux winding, wherein the flux winding is nested in the plurality of stator slots, and is configured to generate an alternating flux when a current is applied, wherein the flux winding comprises a plurality of first parts, a plurality of second parts, and a plurality of third parts, and the plurality of first parts and the plurality of third parts are alternately arranged in sequence, and are connected by using the plurality of second parts; the first part is a part that is of the flux winding and that is located on the outer surface of the stator core, the second part is a part that is of the flux winding and that is embedded into the stator slot, and the third part is a part that is of the flux winding and that is located on the inner surface of the stator core, and the stator slot comprises a first surface that is close to an adjacent stator slot; characterized in that the motor stator comprises permanent magnets, each of the permanent magnets are disposed on one of the first surfaces, and is configured to generate a permanent magnet flux, wherein a direction of the permanent magnet flux is perpendicular to a direction of an alternating flux generated by the flux winding. a stator core, wherein an outer surface of the stator core is connected to an inner surface of the stator core through a plurality of stator slots; and at least one flux winding, wherein the flux winding is nested in the plurality of stator slots, and is configured to generate an alternating flux when a current is applied, wherein the flux winding comprises a plurality of first parts, a plurality of second parts, and a plurality of third parts, and the plurality of first parts and the plurality of third parts are alternately arranged in sequence, and are connected by using the plurality of second parts; the first part is a part that is of the flux winding and that is located on the outer surface of the stator core, the second part is a part that is of the flux winding and that is embedded into the stator slot, and the third part is a part that is of the flux winding and that is located on the inner surface of the stator core, and the stator slot comprises a first surface that is close to an adjacent stator slot; characterized in that the motor stator comprises permanent magnets, each of the permanent magnets are disposed on one of the first surfaces, and is configured to generate a permanent magnet flux, wherein a direction of the permanent magnet flux is perpendicular to a direction of an alternating flux generated by the flux winding.
A system for illuminating a target, comprising: a first illumination module that directs light toward a target location in a field of view area (402, 504); an image recognition subsystem that establishes, based on confinement parameters, a confined field of view area comprising the target location, and detects an object in the confined field of view area; and a motion control subsystem that receives data indicative of the detected object in the confined field of view area from the image recognition subsystem, and transmits data indicative of an illumination adjustment to the first illumination module, the data indicative of an illumination adjustment based upon the data indicative of the detected object in the confined field of view area, characterized in that the image recognition subsystem comprises an optimizer subsystem having predictive logic that predicts a future location of the object detected in the confined field of view area, and the data indicative of the illumination adjustment is based on the predicted future location of the object, and wherein the predictive logic provides a prediction of potential illumination distortions based on the future location of the object. a first illumination module that directs light toward a target location in a field of view area (402, 504); an image recognition subsystem that establishes, based on confinement parameters, a confined field of view area comprising the target location, and detects an object in the confined field of view area; and a motion control subsystem that receives data indicative of the detected object in the confined field of view area from the image recognition subsystem, and transmits data indicative of an illumination adjustment to the first illumination module, the data indicative of an illumination adjustment based upon the data indicative of the detected object in the confined field of view area, characterized in that the image recognition subsystem comprises an optimizer subsystem having predictive logic that predicts a future location of the object detected in the confined field of view area, and the data indicative of the illumination adjustment is based on the predicted future location of the object, and wherein the predictive logic provides a prediction of potential illumination distortions based on the future location of the object.
A piston/cylinder unit with a first, outer hydraulic cylinder, in which a first piston is arranged sealed with respect to the cylinder inner wall of the first hydraulic cylinder and longitudinally movable in it, wherein the first piston carries a second, inner hydraulic cylinder, in which a second piston is arranged sealed with respect to the cylinder inner wall of the second hydraulic cylinder and longitudinally movable in it, which carries a piston rod, wherein the piston rod is connected at its end remote from the second piston to one end of the outer hydraulic cylinder, characterised in that a hydraulically active surface of the first piston on its side facing the second hydraulic cylinder corresponds to a hydraulically active surface of the second piston on its side remote from the piston rod.