mhurhangee/ep-ind-claims huggingface dataset:
An induction heating apparatus comprising: an inverter circuit which includes two switching devices (46, 47) connected in series and outputs an AC signal by driving the two switching devices (46, 47); a control portion which drives and controls the two switching devices (46, 47), and a plurality of resonant circuits (56, 57) each of which includes a respective resonant capacitor (50, 51) and a respective heating (48, 49) and connects to a connecting point between the two switching devices (46, 47) so as to supply constantly signal from the inverter circuit to the plurality of heating coils (48, 49), characterised in that the control portion drives and controls the plurality of switching devices (46, 47), by using, as an operating range, a frequency range higher than a highest resonance frequency, or a frequency range lower than lowest resonance frequency, out of respective resonance frequencies of the plurality of resonant circuits, and the respective heating coils (48, 49) in the plurality of resonant circuits are combined to form at least a single induction heating source, whereby an object to be heated is inductively heated by the at least a single induction heating source. an inverter circuit which includes two switching devices (46, 47) connected in series and outputs an AC signal by driving the two switching devices (46, 47); a control portion which drives and controls the two switching devices (46, 47), and a plurality of resonant circuits (56, 57) each of which includes a respective resonant capacitor (50, 51) and a respective heating (48, 49) and connects to a connecting point between the two switching devices (46, 47) so as to supply constantly signal from the inverter circuit to the plurality of heating coils (48, 49), characterised in that the control portion drives and controls the plurality of switching devices (46, 47), by using, as an operating range, a frequency range higher than a highest resonance frequency, or a frequency range lower than lowest resonance frequency, out of respective resonance frequencies of the plurality of resonant circuits, and the respective heating coils (48, 49) in the plurality of resonant circuits are combined to form at least a single induction heating source, whereby an object to be heated is inductively heated by the at least a single induction heating source.
A hydrophobized spherical polyalkylsilsesquioxane fine particle, which has a mass-based median diameter in a centrifugal sedimentation method within a range of from 0.05 μm to 0.3 μm, wherein the hydrophobized spherical polyalkylsilsesquioxane fine particle has a ratio of a mass-based 90% cumulative diameter (D90 diameter) to a mass-based 10% cumulative diameter (D10 diameter) (D90 diameter/D10 diameter) within a range of from 1.5 to 4.0 in a mass-based particle size distribution to be obtained by the centrifugal sedimentation method.
A method for synchronizing video recordings, the method comprising: matching pairs of audio signals to estimate candidate time offsets between corresponding pairs of video recordings; assigning a confidence measure to each of the candidate time offsets of each pair of video recordings based on features of the corresponding pair of audio signals; creating probability distributions based on the candidate time offsets and on the confidence measures; and estimating final time offsets for each of the corresponding video recordings relative to any reference timeline using an iterative technique based on a graphical representation of the pairs of video recordings, wherein the iterative technique combines the probability distributions into a final probability distribution over all candidate time offsets, and wherein the graphical representation includes nodes each representing a pairwise match of video recordings. matching pairs of audio signals to estimate candidate time offsets between corresponding pairs of video recordings; assigning a confidence measure to each of the candidate time offsets of each pair of video recordings based on features of the corresponding pair of audio signals; creating probability distributions based on the candidate time offsets and on the confidence measures; and estimating final time offsets for each of the corresponding video recordings relative to any reference timeline using an iterative technique based on a graphical representation of the pairs of video recordings, wherein the iterative technique combines the probability distributions into a final probability distribution over all candidate time offsets, and wherein the graphical representation includes nodes each representing a pairwise match of video recordings.
A planar magnetic component arranged on a circuit board of a resonant converter, the resonant converter comprising a primary-side circuit and a secondary-side circuit, the planar magnetic component comprising: an inductor trace (Tl) arranged on the primary-side circuit and formed on one layer board of the circuit board to serve as a resonant inductor (Lr) electrically connected to the primary-side circuit, an inductor iron core (C_L) comprising a core pillar (C_LC), the core pillar (C_LC) penetrating a through hole of the circuit board, and the inductor trace (Tl) surrounding the through hole, an iron core comprising a first core pillar and a second core pillar respectively penetrating a first through hole and a second through hole of the circuit board, a transformer comprising a primary-side trace surrounding the first through hole to serve as a primary-side coil electrically connected to the primary-side circuit, and a secondary-side trace surrounding the second through hole to serve as a secondary-side coil electrically connected to the secondary-side circuit, characterized by a current transformer trace (Tca, Tcb) formed on the circuit board to serve as a current transformer coil (52A, 52B) coupled to the resonant inductor (Lr), wherein the current transformer trace (Tca, Tcb) surrounds the through hole to form a common-core structure that shares the inductor iron core (C_L), and wherein the current transformer trace (Tca, Tcb) surrounding the through hole has a first area, and the inductor trace (Tl) surrounding the through hole has a second area, and the first area is less than the second area. an inductor trace (Tl) arranged on the primary-side circuit and formed on one layer board of the circuit board to serve as a resonant inductor (Lr) electrically connected to the primary-side circuit, an inductor iron core (C_L) comprising a core pillar (C_LC), the core pillar (C_LC) penetrating a through hole of the circuit board, and the inductor trace (Tl) surrounding the through hole, an iron core comprising a first core pillar and a second core pillar respectively penetrating a first through hole and a second through hole of the circuit board, a transformer comprising a primary-side trace surrounding the first through hole to serve as a primary-side coil electrically connected to the primary-side circuit, and a secondary-side trace surrounding the second through hole to serve as a secondary-side coil electrically connected to the secondary-side circuit, characterized by a current transformer trace (Tca, Tcb) formed on the circuit board to serve as a current transformer coil (52A, 52B) coupled to the resonant inductor (Lr), wherein the current transformer trace (Tca, Tcb) surrounds the through hole to form a common-core structure that shares the inductor iron core (C_L), and wherein the current transformer trace (Tca, Tcb) surrounding the through hole has a first area, and the inductor trace (Tl) surrounding the through hole has a second area, and the first area is less than the second area.
A replacement mitral heart valve comprising: an expandable frame (40, 140, 140a, 140b, 140c) comprising a first portion configured to be positioned in a left atrium of the heart and a second portion configured to be positioned inside of a native mitral valve annulus, wherein the frame has a D-shaped cross-section and wherein the first portion comprises an anchoring means (68, 80, 118, 190b, 190c, 192) configured to engage a left atrial side of the native mitral valve annulus, wherein the frame further comprises a third portion configured to be positioned in the left ventricle of the heart; a plurality of anchors (90, 190, 226) extending from the third portion of the frame, wherein the plurality of anchors are configured to be positioned on a left ventricular side of the native mitral valve annulus and extend generally toward the first portion and wherein the anchors comprise tips having a smooth radius; and a valve body attached to the frame. an expandable frame (40, 140, 140a, 140b, 140c) comprising a first portion configured to be positioned in a left atrium of the heart and a second portion configured to be positioned inside of a native mitral valve annulus, wherein the frame has a D-shaped cross-section and wherein the first portion comprises an anchoring means (68, 80, 118, 190b, 190c, 192) configured to engage a left atrial side of the native mitral valve annulus, wherein the frame further comprises a third portion configured to be positioned in the left ventricle of the heart; a plurality of anchors (90, 190, 226) extending from the third portion of the frame, wherein the plurality of anchors are configured to be positioned on a left ventricular side of the native mitral valve annulus and extend generally toward the first portion and wherein the anchors comprise tips having a smooth radius; and a valve body attached to the frame.
A method of manufacturing a spark plug comprising an insulator having an axial bore extending in a direction of an axis; a center electrode (3, 45) inserted into the axial bore; a metallic shell disposed externally of an outer circumference of the insulator and having a ledge projecting into interior thereof; a ground electrode joined to a forward end portion of the metallic shell and forming a gap (g) in cooperation with the center electrode (3, 45); and a packing disposed between the insulator and a surface of the ledge located on a rear side thereof opposite a forward side of the metallic shell where the gap (g) is formed; the method being characterized by comprising a defect judgment step of judging whether or not the insulator has a defect, by means of generation of an electric potential difference between the center electrode (3, 45) and the metallic shell under conditions such that an assembly of the center electrode (3, 45), the metallic shell, and the insulator is disposed within a pressure vessel, a high-pressure atmosphere higher in pressure than the atmospheric pressure is established within the pressure vessel, a space which allows the presence of insulating oil is a space (a) surrounded by the packing, the metallic shell, the insulator, and an imaginary plane (h) containing a forward end surface of the metallic shell, and the insulating oil is present at least in a region of the space (a) where a distance between the ledge and the insulator becomes shortest; and a step of assembling the insulator, the center electrode (3, 45) and the metallic shell to form an intermediate product before carrying out the defect judgment step.
Web-shaped laminate material for package containers comprising at least a support layer, a thermoplastic innermost layer and a conductive layer, wherein the conductive layer is provided between the support layer and the thermoplastic innermost layer, wherein the conductive layer is a metal vapor deposition layer made of a metallic conductive material provided on a base film of a vapor deposition film between the support layer and the thermoplastic innermost layer, characterized in that the electrically conductive layer is provided outside of the base film between the support layer and the base film, and the conductive layer is provided over the substantially entire surface of the laminate material.
A method for manufacturing a smart card comprising a manually actuatable contact switch (7, 16) for activating a function of the smart card, comprising the following steps of: - uncovering a region of a first side of a circuit board arranged in the interior of the card, including first conductor paths arranged there, - loading data to the smart card from the first side of the circuit board via the uncovered first conductor paths, in particular for personalizing the smart card, - uncovering second conductor paths in the specified region of the circuit board from the first side of the circuit board, said second conductor paths being arranged on a second side of the circuit board disposed opposite the first side, and - contacting a contact switch (7, 16) with the uncovered second conductor paths on the second side of the circuit board, characterized in that the specified region is disposed in a region of the smart card which is provided for contact areas pursuant to ISO 7816-2. - uncovering a region of a first side of a circuit board arranged in the interior of the card, including first conductor paths arranged there, - loading data to the smart card from the first side of the circuit board via the uncovered first conductor paths, in particular for personalizing the smart card, - uncovering second conductor paths in the specified region of the circuit board from the first side of the circuit board, said second conductor paths being arranged on a second side of the circuit board disposed opposite the first side, and - contacting a contact switch (7, 16) with the uncovered second conductor paths on the second side of the circuit board, characterized in that the specified region is disposed in a region of the smart card which is provided for contact areas pursuant to ISO 7816-2.
A method for transmitting uplink control information by a user equipment in a time division duplex, TDD, wireless communication system configured with a plurality of aggregated serving cells, the method comprising: receiving at least one downlink signal in at least one downlink subframe, the at least one downlink signal requiring a hybrid automatic repeat request acknowledgement, HARQ-ACK, response; and transmitting the HARQ-ACK response to the at least one downlink signal, in a specific uplink subframe which is associated with the at least one downlink subframe, on one of the plurality of serving cells, characterised in that: when the plurality of serving cells have different uplink-downlink, UL-DL, configurations, the HARQ-ACK response is transmitted through the specific uplink subframe only when said specific uplink subframe is configured as uplink for all the plurality of serving cells. receiving at least one downlink signal in at least one downlink subframe, the at least one downlink signal requiring a hybrid automatic repeat request acknowledgement, HARQ-ACK, response; and transmitting the HARQ-ACK response to the at least one downlink signal, in a specific uplink subframe which is associated with the at least one downlink subframe, on one of the plurality of serving cells, characterised in that: when the plurality of serving cells have different uplink-downlink, UL-DL, configurations, the HARQ-ACK response is transmitted through the specific uplink subframe only when said specific uplink subframe is configured as uplink for all the plurality of serving cells.
An electrical power distribution network, comprising: a plurality of transformers (108; 208; 400; 500); a local manager (110; 210; 412; 554) associated with a transformer (108; 208; 400; 500); a core flux sensor arrangement (114; 214; 404; 522) coupled to each local manager (110; 210; 412; 554), the core flux sensor arrangement configured to detect a magnetic flux level in a magnetic flux core of the associated transformer; each local manager (108; 208; 400; 500) configured to monitor and control the magnetic flux level in the magnetic flux core of the associated transformer (108; 208; 400; 500); and a central manager (106; 206) configured to receive and analyze magnetic flux level data from each local manager (110; 210; 412; 554) and transmit an individual instruction to at least some local managers (108; 208; 400; 500) for controlling the magnetic flux level in the associated transformer (108; 208; 400; 500) in response to the analysis of the magnetic flux level data. a plurality of transformers (108; 208; 400; 500); a local manager (110; 210; 412; 554) associated with a transformer (108; 208; 400; 500); a core flux sensor arrangement (114; 214; 404; 522) coupled to each local manager (110; 210; 412; 554), the core flux sensor arrangement configured to detect a magnetic flux level in a magnetic flux core of the associated transformer; each local manager (108; 208; 400; 500) configured to monitor and control the magnetic flux level in the magnetic flux core of the associated transformer (108; 208; 400; 500); and a central manager (106; 206) configured to receive and analyze magnetic flux level data from each local manager (110; 210; 412; 554) and transmit an individual instruction to at least some local managers (108; 208; 400; 500) for controlling the magnetic flux level in the associated transformer (108; 208; 400; 500) in response to the analysis of the magnetic flux level data.
Distributor box with at least one eyelet element for forming a guide (14,15) for a cable bundle (19,21) and with fittings for attaching the eyelet element to the distributor box thereby forming such a cable guide outside the distributor box, characterised in that the eyelet element can be attached to a vertical side of the distributor box using the fittings and that the cable guide formed thereby outside the distributor box allows cables fed to the distributor box from above to be placed to bypass said distributor box in an orderly fashion, thus providing no obstacles in gaining access to the distributor box.
A blade (150a,b) for severing a tubular of a wellbore, the wellbore penetrating a subterranean formation, the blade extendable by a ram (24, 26) of a blowout preventer receiving the tubular therethrough, the blade comprising: a blade body having a front face on a side thereof facing the tubular, a loading surface on an opposite side of the blade body to the front face, the loading surface receivable by the ram; a cutting surface along at least a portion of the front face for engagement with the tubular; and a piercing point along the front face for piercing the tubular, the piercing point having a tip extending a distance from the cutting surface. characterized in that at least a portion of the front face having a vertical surface and at least a portion of the front face has an inclined surface, the vertical surface perpendicular to a bottom surface of the blade body, a blade body having a front face on a side thereof facing the tubular, a loading surface on an opposite side of the blade body to the front face, the loading surface receivable by the ram; a cutting surface along at least a portion of the front face for engagement with the tubular; and a piercing point along the front face for piercing the tubular, the piercing point having a tip extending a distance from the cutting surface. characterized in that at least a portion of the front face having a vertical surface and at least a portion of the front face has an inclined surface, the vertical surface perpendicular to a bottom surface of the blade body,
A urinary catheter connector system comprising: a housing; a catheter connector port supported by the housing and configured to attach to a urinary catheter; a urine exit port supported by the housing and configured to connect to a urine collection device; an irrigation port supported by the housing and configured to receive an irrigation syringe; a channel in the housing fluidly connecting the catheter connector port, the urine exit port and the irrigation port; and a valve (15, 30) supported by the housing and adapted to cooperate with the irrigation syringe to shut off flow of fluid and air to the urine exit port when the irrigation syringe is inserted and allow for flow of fluid and air to the urine exit port when the irrigation syringe is removed; characterized in that the system further comprises a pliable membrane extending over the irrigation port, the pliable membrane having a self-sealing opening configured to allow a tip of the irrigation syringe to extend therethrough, the pliable membrane being disposed at a distance from a distal end of the valve (15, 30) such that the tip of the irrigation syringe can extend through the self-sealing opening to the distal end of the valve when the irrigation syringe is inserted into the irrigation port. a housing; a catheter connector port supported by the housing and configured to attach to a urinary catheter; a urine exit port supported by the housing and configured to connect to a urine collection device; an irrigation port supported by the housing and configured to receive an irrigation syringe; a channel in the housing fluidly connecting the catheter connector port, the urine exit port and the irrigation port; and a valve (15, 30) supported by the housing and adapted to cooperate with the irrigation syringe to shut off flow of fluid and air to the urine exit port when the irrigation syringe is inserted and allow for flow of fluid and air to the urine exit port when the irrigation syringe is removed; characterized in that the system further comprises a pliable membrane extending over the irrigation port, the pliable membrane having a self-sealing opening configured to allow a tip of the irrigation syringe to extend therethrough, the pliable membrane being disposed at a distance from a distal end of the valve (15, 30) such that the tip of the irrigation syringe can extend through the self-sealing opening to the distal end of the valve when the irrigation syringe is inserted into the irrigation port.
Method for bringing together a cover with several inserts (2, 3, 4) for a compilation of advertising material (5, 5'), in which the cover and the inserts (2, 3, 4) are deposited individually one after the other on a conveyor element (9, 9') that is moved in a transport direction in the area of a collating line (6, 6'), in which a leading edge of the cover in the conveying direction is deposited offset to the leading edges (23, 25, 26) of the inserts (2, 3, 4), giving the cover an excess length (24, 24') in relation to the inserts (2, 3, 4), characterised in that the inserts (2, 3, 4) are deposited on top of each other, forming a stack, in such a way that the leading edges (23, 25, 26) of the inserts (2, 3, 4) form at least approximately a common folded edge, in which the excess length (24, 24') of the cover lying flat on the conveyor element or on the stack of inserts (2, 3, 4) is wrapped around this folded edge as well as at least partly around the stack of inserts (2, 3, 4) forming the compilation of advertising material (5, 5'), in which the compilation of advertising material (5, 5') is then folded at the folded edge and finally removed for further processing.