mhurhangee/ep-ind-claims huggingface dataset:
A metal insert-molded article (1, 1', 1") having sealing ability, the metal insert-molded article (1, 1', 1") comprising: a molding material (2, 2') and a metal material (3, 3', 3", 3"') integrally molded together by insert molding, wherein the molding material (2, 2') comprises a crystalline thermoplastic resin as a main component, and comprises an inorganic filler in an amount of 0% by weight to 15% by weight, and the metal material (3, 3', 3", 3'") has an aspect ratio of 1 to 10 in a cross section perpendicular to a lengthwise direction of the metal material (3, 3', 3", 3'"), and is not surface-treated for adhesion with the molding material (2, 2'), the metal insert-molded article (1, 1', 1") characterized in that the metal material (3, 3', 3", 3'") has a shape with aspect ratios that vary depending on an adopted cross section and the cross section perpendicular to the lengthwise direction of the metal material (3, 3', 3", 3'") has a cross section of the metal material (3, 3', 3", 3'") having the lowest aspect ratio, wherein the portion of the metal material with the cross section (3, 3', 3", 3"') having the lowest aspect ratio is not exposed as a surface of the metal insert-molded article. a molding material (2, 2') and a metal material (3, 3', 3", 3"') integrally molded together by insert molding, wherein the molding material (2, 2') comprises a crystalline thermoplastic resin as a main component, and comprises an inorganic filler in an amount of 0% by weight to 15% by weight, and the metal material (3, 3', 3", 3'") has an aspect ratio of 1 to 10 in a cross section perpendicular to a lengthwise direction of the metal material (3, 3', 3", 3'"), and is not surface-treated for adhesion with the molding material (2, 2'), the metal insert-molded article (1, 1', 1") characterized in that the molding material (2, 2') comprises a crystalline thermoplastic resin as a main component, and comprises an inorganic filler in an amount of 0% by weight to 15% by weight, and the metal material (3, 3', 3", 3'") has an aspect ratio of 1 to 10 in a cross section perpendicular to a lengthwise direction of the metal material (3, 3', 3", 3'"), and is not surface-treated for adhesion with the molding material (2, 2'), the metal insert-molded article (1, 1', 1") characterized in that the metal material (3, 3', 3", 3'") has a shape with aspect ratios that vary depending on an adopted cross section and the cross section perpendicular to the lengthwise direction of the metal material (3, 3', 3", 3'") has a cross section of the metal material (3, 3', 3", 3'") having the lowest aspect ratio, wherein the portion of the metal material with the cross section (3, 3', 3", 3"') having the lowest aspect ratio is not exposed as a surface of the metal insert-molded article.
A method implemented in a network element, NE, the method comprising: receiving, by a receiver of the NE, an initial packet associated with a live flow, the initial packet containing a header including conditional commands related to an operational flow profile, wherein a conditional command includes a condition and a command, the condition indicates an item that must be satisfied before the command is executed, and the command indicates an action or actions to be taken by the NE upon occurrence of the condition; executing, by a processor at the NE, the conditional commands to initialize a state of an operational flow profile by allocating memory of the NE to store results of an aggregation function applied to the live flow; receiving, by the receiver, a subsequent packet associated with the live flow; applying, by the processor, the aggregation function to the subsequent packet; and storing, in the memory, results of the aggregation function to update the state of the operational flow profile. receiving, by a receiver of the NE, an initial packet associated with a live flow, the initial packet containing a header including conditional commands related to an operational flow profile, wherein a conditional command includes a condition and a command, the condition indicates an item that must be satisfied before the command is executed, and the command indicates an action or actions to be taken by the NE upon occurrence of the condition; executing, by a processor at the NE, the conditional commands to initialize a state of an operational flow profile by allocating memory of the NE to store results of an aggregation function applied to the live flow; receiving, by the receiver, a subsequent packet associated with the live flow; applying, by the processor, the aggregation function to the subsequent packet; and storing, in the memory, results of the aggregation function to update the state of the operational flow profile.
Oscillating device for an ingot mold of a continuous casting system, comprising: - an upper oscillating frame supporting the ingot mold, a lower translating frame, at least one front arm (72,74) hinged to the translating frame and to the oscillating frame respectively in a lower front hinge axis (Cai) and an upper front hinge axis (Cas), at least one rear arm (76,78) hinged to the translating frame and to the oscillating frame respectively in a lower rear hinge axis (Cpi) and an upper rear hinge axis (Cps); - actuation means adapted to move the translating frame with an alternating translational movement on a translation plane; - a trajectory guide cooperating with the oscillating frame as a stop; wherein the lower hinge axes (Cai, Cpi) lie on an imaginary plane coinciding with the translation plane of the translating frame and the upper hinge axes (Cas,Cps) lie on an inclined plane, inclined with respect to the translation plane, to make said oscillating frame complete an oscillation along an arcuate trajectory; said oscillating device being characterized in that an alternating translation of the translating frame corresponds to an alternating translation of the oscillating frame, which remains always parallel to an horizontal plane, but vertically follows the arcuate trajectory. - an upper oscillating frame supporting the ingot mold, a lower translating frame, at least one front arm (72,74) hinged to the translating frame and to the oscillating frame respectively in a lower front hinge axis (Cai) and an upper front hinge axis (Cas), at least one rear arm (76,78) hinged to the translating frame and to the oscillating frame respectively in a lower rear hinge axis (Cpi) and an upper rear hinge axis (Cps); - actuation means adapted to move the translating frame with an alternating translational movement on a translation plane; - a trajectory guide cooperating with the oscillating frame as a stop;
An artificial lung comprising: a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle; and a heat exchanger portion that is provided with at least a heat exchanging element, wherein the artificial lung is designed such that when gas exchange performance of the artificial lung, a blood filling amount of the artificial lung, and a blood side pressure loss of the artificial lung are measured, and when Fp1=gas exchange performance of artificial lung [L/min]/(blood filling amount of artificial lung ×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp1 is equal to or greater than 2.5. a gas exchanger portion that is provided with an external circulation-type gas exchanging hollow fiber membrane bundle; and a heat exchanger portion that is provided with at least a heat exchanging element, wherein the artificial lung is designed such that when gas exchange performance of the artificial lung, a blood filling amount of the artificial lung, and a blood side pressure loss of the artificial lung are measured, and when Fp1=gas exchange performance of artificial lung [L/min]/(blood filling amount of artificial lung ×blood side pressure loss of artificial lung [mmHg/(L/min)]) is calculated, a value of Fp1 is equal to or greater than 2.5.
A high breaking capacity chip fuse comprising: a bottom insulative layer, a first intermediate insulative layer, a second intermediate insulative layer and a top insulative layer disposed in a stacked arrangement; and a fusible element disposed between the first and second intermediate insulative layers (14,16) and extending between electrically conductive first and second terminals (22, 24) at opposing longitudinal ends of the bottom insulative layer, the first intermediate insulative layer, the second intermediate insulative layer and the top insulative layer, the first and second intermediate insulative layers (14, 16) extending continuously from the electrically conductive first terminal to the electrically conductive second terminal and entirely separating the fusible element from the bottom insulative layer and the top insulative layer wherein the first and second intermediate insulative layers (14, 16) are formed of porous ceramic. a bottom insulative layer, a first intermediate insulative layer, a second intermediate insulative layer and a top insulative layer disposed in a stacked arrangement; and a fusible element disposed between the first and second intermediate insulative layers (14,16) and extending between electrically conductive first and second terminals (22, 24) at opposing longitudinal ends of the bottom insulative layer, the first intermediate insulative layer, the second intermediate insulative layer and the top insulative layer, the first and second intermediate insulative layers (14, 16) extending continuously from the electrically conductive first terminal to the electrically conductive second terminal and entirely separating the fusible element from the bottom insulative layer and the top insulative layer wherein the first and second intermediate insulative layers (14, 16) are formed of porous ceramic.
A noise reduction apparatus for use inside a vehicle with at least one passenger seat, comprising: a noise detecting microphone that detects noise emitted from a noise source; a control speaker that emits a control sound for canceling the noise at a control point in a control space in the vicinity of the ear of the passenger, based on a control sound signal; a low-pass filter that filters the noise detected by said noise detecting microphone; and a noise controller that performs feedforward control and that generates the control sound signal based on the low-pass filtered noise generated by the low-pass filter, characterised in that the low-pass filter has a cut-off frequency (fc) that is adapted to be not more than half of a frequency fd whose corresponding period Td is the time difference between the noise transmittance time Tp and the control sound delay time Tq when the control sound delay time Tq is larger than the noise transmittance time Tp, where the noise transmittance time Tp is the noise propagation time between the noise detecting microphone and the control point, and where the control sound delay time Tq corresponds to the sum of the control delay time required from inputting to outputting in the noise detecting microphone, in the noise controller and in the control speaker, and of the control sound transmittance time taken by the control sound to propagate from the control speaker to the control point. a noise detecting microphone that detects noise emitted from a noise source; a control speaker that emits a control sound for canceling the noise at a control point in a control space in the vicinity of the ear of the passenger, based on a control sound signal; a low-pass filter that filters the noise detected by said noise detecting microphone; and a noise controller that performs feedforward control and that generates the control sound signal based on the low-pass filtered noise generated by the low-pass filter, characterised in that the low-pass filter has a cut-off frequency (fc) that is adapted to be not more than half of a frequency fd whose corresponding period Td is the time difference between the noise transmittance time Tp and the control sound delay time Tq when the control sound delay time Tq is larger than the noise transmittance time Tp, where the noise transmittance time Tp is the noise propagation time between the noise detecting microphone and the control point, and where the control sound delay time Tq corresponds to the sum of the control delay time required from inputting to outputting in the noise detecting microphone, in the noise controller and in the control speaker, and of the control sound transmittance time taken by the control sound to propagate from the control speaker to the control point.
A method of forming a lactylate, said method comprising reacting a reactant mixture to form the lactylate, said reactant mixture comprising a dilactide and a compound selected from the group consisting of glycerine, propylene glycol, monoglycerides, diglycerides, and propylene glycol monoester.
A method for data processing applicable in a device having a multimedia interface and configured with a peer-to-peer, P2P station network interface and a soft Access Point, AP network interface, comprising: providing a P2P service data access by using the P2P station network interface and providing an AP service data access by using the soft AP network interface; and receiving service data, determining a network interface corresponding to a service type of the received service data, wherein the service type is either a P2P service or a soft AP service, determining a radio frequency channel corresponding to the determined network interface, and transmitting the service data by using the determined radio frequency channel; characterized in that the method further comprises, when the service type corresponding to the service data is the P2P service, storing the service data, broadcasting the service data by using the radio frequency channel corresponding to the P2P service, or providing access to the service data via the P2P station network interface, and in that the service type of the received service data is determined by parsing a frame structure of the received service data; when the frame structure of the received service data carries a P2P Information Element, IE, the service type of received service data is determined as the P2P service by identifying a version type of the P2P IE, based on an OUI Type field in the P2P IE, said OUI Type field representing the version type of the P2P IE. providing a P2P service data access by using the P2P station network interface and providing an AP service data access by using the soft AP network interface; and receiving service data, determining a network interface corresponding to a service type of the received service data, wherein the service type is either a P2P service or a soft AP service, determining a radio frequency channel corresponding to the determined network interface, and transmitting the service data by using the determined radio frequency channel; characterized in that the method further comprises, when the service type corresponding to the service data is the P2P service, storing the service data, broadcasting the service data by using the radio frequency channel corresponding to the P2P service, or providing access to the service data via the P2P station network interface, and in that the service type of the received service data is determined by parsing a frame structure of the received service data; when the frame structure of the received service data carries a P2P Information Element, IE, the service type of received service data is determined as the P2P service by identifying a version type of the P2P IE, based on an OUI Type field in the P2P IE, said OUI Type field representing the version type of the P2P IE.
A device for detecting a three-dimensional structure by an ultrasonic signal, comprising: a frequency-encoded sound transducer for receiving and/or generating a spatially structured sound field, wherein the frequency-encoded sound transducer comprises a total aperture (10, 20, 30, 52, 60, 70), wherein the total aperture comprises a plurality of subapertures (12, 14, 16, 18; 22, 24, 26, 28; 36a, 36b; 40a, 40b, 40n; 54, 56; 62, 64), each of the sub-apertures being setup to receive and/or generate sound fields with a specific frequency spectrum, wherein the specific frequency spectra of at least two of the subapertures differ, and whereby all sub-apertures of the overall aperture are connected to the same electronic control channel (38, 39; 48; 58; 80, 82, 84); a processing unit arranged to decode an ultrasonic signal detected by the frequency-encoded transducer, which comprises signals reflected and scattered at sound-reflecting elements of a sound field irradiated by the frequency-encoded transducer, on the basis of a known specific sound field of the frequency-encoded transducer, the specific sound field representing a superposition of the sound fields of the sub-apertures; and wherein the processing unit is further arranged to obtain a distribution of the sound-reflecting elements in three-dimensional space from the decoded ultrasonic signal. a frequency-encoded sound transducer for receiving and/or generating a spatially structured sound field, wherein the frequency-encoded sound transducer comprises a total aperture (10, 20, 30, 52, 60, 70), wherein the total aperture comprises a plurality of subapertures (12, 14, 16, 18; 22, 24, 26, 28; 36a, 36b; 40a, 40b, 40n; 54, 56; 62, 64), each of the sub-apertures being setup to receive and/or generate sound fields with a specific frequency spectrum, wherein the specific frequency spectra of at least two of the subapertures differ, and whereby all sub-apertures of the overall aperture are connected to the same electronic control channel (38, 39; 48; 58; 80, 82, 84); a processing unit arranged to decode an ultrasonic signal detected by the frequency-encoded transducer, which comprises signals reflected and scattered at sound-reflecting elements of a sound field irradiated by the frequency-encoded transducer, on the basis of a known specific sound field of the frequency-encoded transducer, the specific sound field representing a superposition of the sound fields of the sub-apertures; and wherein the processing unit is further arranged to obtain a distribution of the sound-reflecting elements in three-dimensional space from the decoded ultrasonic signal.
A angle fitting, especially for mounting hanging furniture, comprising a first plate-shaped section having a metallic mounting plate on which an opening is provided, for passing through a fastening means, whereby adjacent to the opening latching means are provided which can be brought into engagement with latching means of a latching plate, and having a second plate-shaped section having at least one opening for fixing means, characterized in that the first and the second plate-shaped section (102, 107) are essentially made from plastic and whereby the metallic mounting plate is embedded in plastic material in its edge regions.
A lighting device comprising: a transmissive housing; a filament within said transmissive housing, said filament comprising a transmissive substrate carrying a plurality of solid state lighting elements; and a phosphor containing resin coating enveloping said filament, said resin coating including at least one region, with a reduced thickness, leaking light produced by said solid state lighting elements that is unconverted by said phosphor; characterised in that the transmissive housing carries a further phosphor layer covering a part of the transmissive housing and being optically aligned with each of said regions of the resin coating with the reduced thickness, each of said further phosphor layers being arranged to receive said unconverted light leaking from at least one of said regions, whilst the other part of the housing remains transmissive. a transmissive housing; a filament within said transmissive housing, said filament comprising a transmissive substrate carrying a plurality of solid state lighting elements; and a phosphor containing resin coating enveloping said filament, said resin coating including at least one region, with a reduced thickness, leaking light produced by said solid state lighting elements that is unconverted by said phosphor; characterised in that the transmissive housing carries a further phosphor layer covering a part of the transmissive housing and being optically aligned with each of said regions of the resin coating with the reduced thickness, each of said further phosphor layers being arranged to receive said unconverted light leaking from at least one of said regions, whilst the other part of the housing remains transmissive.
A plug apparatus for carrying out tests in a petroleum well, a pipe or a borehole, comprising an outer housing provided with a throughgoing axial bore surrounding at least one sealing device, characterised in that the plug apparatus further comprises a plurality of supporting bodies (4, 5, 6,14) which support the at least one sealing device, where at least one of the supporting bodies (4, 5, 6,14) is in engagement with a locking device for locking to a locking sleeve and a locking ring, where the at least one of the supporting bodies (4, 5, 6, 14) is brought out of engagement with the locking device after the application of predetermined force on the locking ring, whereby the at least the one of the supporting bodies (4, 5, 6, 14) and the at least one sealing device are permitted an axial movement in the outer housing, this movement resulting in the at least one sealing device being brought into contact with loading devices adapted to subject the at least one sealing device to load so as to produce disintegration of the at least one sealing device.
A Schottky diode comprising: a drift layer having a first surface with an active region, wherein the drift layer is doped with a doping material of a first conductivity type; a Schottky layer over the active region of the first surface to form a Schottky junction, the Schottky layer forming the Schottky junction with respect to the active region on the first surface; and a plurality of first doped regions that extend into the drift layer about corresponding ones of a plurality of recesses, wherein the plurality of first doped regions are doped with a doping material of a second conductivity type, which is opposite the first conductivity type, and form a surge protection region in the drift layer below the Schottky junction, wherein the spacing between adjacent first doped regions is less than 3μm and is configured to increase a resistance of a current path at the spacing such that conduction at the plurality of first doped regions adjacent to the spacing begins at a desired level of forward current, wherein the Schottky layer is within the plurality of recesses and forms an ohmic contact with the plurality of first doped regions within the plurality of recesses. a drift layer having a first surface with an active region, wherein the drift layer is doped with a doping material of a first conductivity type; a Schottky layer over the active region of the first surface to form a Schottky junction, the Schottky layer forming the Schottky junction with respect to the active region on the first surface; and a plurality of first doped regions that extend into the drift layer about corresponding ones of a plurality of recesses, wherein the plurality of first doped regions are doped with a doping material of a second conductivity type, which is opposite the first conductivity type, and form a surge protection region in the drift layer below the Schottky junction, wherein the spacing between adjacent first doped regions is less than 3μm and is configured to increase a resistance of a current path at the spacing such that conduction at the plurality of first doped regions adjacent to the spacing begins at a desired level of forward current, wherein the Schottky layer is within the plurality of recesses and forms an ohmic contact with the plurality of first doped regions within the plurality of recesses.