mhurhangee/ep-ind-claims huggingface dataset:
A cooking apparatus comprising a panel (c) and a knob assembly mounted on the panel (c), wherein the knob assembly comprises: a knob, provided at or on an outside of the panel (c), for adjusting a power level of a power source; a knob ring, provided at or on an outside of the panel (c), surrounding the knob and rotatable independently of the knob; an actuating member coupled to the knob ring; a support frame provided with a guide recess corresponding to an outer diameter of the actuating member to support an outer circumferential surface of the actuating member; and a fixing frame coupled to the support frame and configured to prevent the actuating member from escaping from the support frame; characterized in that the cooking apparatus further includes a bearing shell provided with: a circular plate inserted between the knob ring and the panel (c) to reduce friction thereof, and wherein the circular plate separates the knob ring from the front panel (c) of the cooking apparatus by a predetermined gap; and a cylinder inserted between the outer circumferential surface of the actuating member and an inner circumference surface of the support frame for reducing friction between the actuating member and the support frame. a knob, provided at or on an outside of the panel (c), for adjusting a power level of a power source; a knob ring, provided at or on an outside of the panel (c), surrounding the knob and rotatable independently of the knob; an actuating member coupled to the knob ring; a support frame provided with a guide recess corresponding to an outer diameter of the actuating member to support an outer circumferential surface of the actuating member; and a fixing frame coupled to the support frame and configured to prevent the actuating member from escaping from the support frame; characterized in that the cooking apparatus further includes a bearing shell provided with: a circular plate inserted between the knob ring and the panel (c) to reduce friction thereof, and wherein the circular plate separates the knob ring from the front panel (c) of the cooking apparatus by a predetermined gap; and a cylinder inserted between the outer circumferential surface of the actuating member and an inner circumference surface of the support frame for reducing friction between the actuating member and the support frame. a circular plate inserted between the knob ring and the panel (c) to reduce friction thereof, and wherein the circular plate separates the knob ring from the front panel (c) of the cooking apparatus by a predetermined gap; and a cylinder inserted between the outer circumferential surface of the actuating member and an inner circumference surface of the support frame for reducing friction between the actuating member and the support frame.
A method comprising: receiving at a first device a first data message comprising an indication of availability of a plurality of auxiliary content streams associated with a broadcast signal, and an indication of one or more device types for receiving each of the plurality of auxiliary content streams; and responsive to determining that a plurality of second devices corresponds to the one or more device types, providing an indication of said availability to the plurality of second devices, and providing playback synchronization information for the plurality of auxiliary content streams to the plurality of second devices. receiving at a first device a first data message comprising an indication of availability of a plurality of auxiliary content streams associated with a broadcast signal, and an indication of one or more device types for receiving each of the plurality of auxiliary content streams; and responsive to determining that a plurality of second devices corresponds to the one or more device types, providing an indication of said availability to the plurality of second devices, and providing playback synchronization information for the plurality of auxiliary content streams to the plurality of second devices.
A process for preparing a zeolitic material having framework type AEI and having a framework structure which comprises a tetravalent element Y, a trivalent element X, and oxygen, said process comprising (i) providing a zeolitic material having framework type CHA and having a framework structure comprising the tetravalent element Y, the trivalent element X, and oxygen; (ii) preparing a synthesis mixture comprising the zeolitic material provided in (i), water, a source of the tetravalent element Y other than the zeolitic material provided in (i), and an AEI framework structure directing agent; wherein the AEI framework structure directing agent comprises one or more N,N-(C 1 -C 3)dialkyl-(C 1 -C 3)dialkylpiperidinium cation containing compounds; (iii) subjecting the synthesis mixture prepared in (ii) to hydrothermal synthesis conditions comprising heating the synthesis mixture to a temperature in the range of from 100 to 200 °C and keeping the synthesis mixture at a temperature in this range under autogenous pressure, obtaining the zeolitic material having framework type AEI; wherein Y is Si; wherein X is Al; wherein in the framework structure of the zeolitic material provided in (i), the molar ratio Y:X, calculated as YO 2: X 2 O 3, is at most 20:1. (i) providing a zeolitic material having framework type CHA and having a framework structure comprising the tetravalent element Y, the trivalent element X, and oxygen; (ii) preparing a synthesis mixture comprising the zeolitic material provided in (i), water, a source of the tetravalent element Y other than the zeolitic material provided in (i), and an AEI framework structure directing agent; wherein the AEI framework structure directing agent comprises one or more N,N-(C 1 -C 3)dialkyl-(C 1 -C 3)dialkylpiperidinium cation containing compounds; (iii) subjecting the synthesis mixture prepared in (ii) to hydrothermal synthesis conditions comprising heating the synthesis mixture to a temperature in the range of from 100 to 200 °C and keeping the synthesis mixture at a temperature in this range under autogenous pressure, obtaining the zeolitic material having framework type AEI; wherein Y is Si; wherein X is Al; wherein in the framework structure of the zeolitic material provided in (i), the molar ratio Y:X, calculated as YO 2: X 2 O 3, is at most 20:1.
A data collection device for photovoltaic power generation, the data collection device comprising: a receiver configured to receive data on an amount of photovoltaic power generation; a storage unit configured to store a plurality of representative patterns of a graph for monitoring the amount of photovoltaic power generation; a control unit configured to make a graph for monitoring the amount of photovoltaic power generation based on a first piece of data on the amount of photovoltaic power generation received by the receiver and the plurality of representative patterns stored in the storage unit; and a transmitter configured to transmit the graph made by the control unit to an external device, characterized in that the control unit is further configured to make the graph by comparing the first piece of data with the plurality of representative patterns, and select a most similar representative pattern from the plurality of representative patterns as a result of the comparison, the first piece of data comprises a time at which power generation starts, a time at which power generation ends, and a maximum amount of power generation, and the selected representative pattern contains times at which power generation starts and power generation ends as characteristics in order to select the most similar representative pattern from the plurality of representative patterns. a receiver configured to receive data on an amount of photovoltaic power generation; a storage unit configured to store a plurality of representative patterns of a graph for monitoring the amount of photovoltaic power generation; a control unit configured to make a graph for monitoring the amount of photovoltaic power generation based on a first piece of data on the amount of photovoltaic power generation received by the receiver and the plurality of representative patterns stored in the storage unit; and a transmitter configured to transmit the graph made by the control unit to an external device, characterized in that the control unit is further configured to make the graph by comparing the first piece of data with the plurality of representative patterns, and select a most similar representative pattern from the plurality of representative patterns as a result of the comparison, the first piece of data comprises a time at which power generation starts, a time at which power generation ends, and a maximum amount of power generation, and the selected representative pattern contains times at which power generation starts and power generation ends as characteristics in order to select the most similar representative pattern from the plurality of representative patterns.
A gas turbine engine and air intake assembly, wherein: - the gas turbine engine comprises a fan case and a fan housed therein adapted to rotate about an engine main axis; and the air intake is connected to the fan case to define an intake passage extending between an inlet highlight at a first end and an upstream face of the fan at a second end; - the intake passage comprises upper and lower inner walls, the intersection of which with a meridional plane containing the engine main axis defines, respectively, an upper inner profile and a lower inner profile of the intake passage, a camber line being defined by the locus of the centres of the circles tangent to both the upper inner profile and lower inner profile; and - said intake passage further comprises in flow series: an intake lip, a most upstream portion of which defines the intake highlight and a most downstream portion of which defines a throat, a diffuser with sectional area broadening towards the fan; and a straight conditioning duct, arranged immediately upstream of the fan, wherein the camber line intersects the engine main axis at an intersecting point upstream of the fan and wherein the camber line is parallel to the engine main axis in the straight conditioning duct. - the gas turbine engine comprises a fan case and a fan housed therein adapted to rotate about an engine main axis; and the air intake is connected to the fan case to define an intake passage extending between an inlet highlight at a first end and an upstream face of the fan at a second end; - the intake passage comprises upper and lower inner walls, the intersection of which with a meridional plane containing the engine main axis defines, respectively, an upper inner profile and a lower inner profile of the intake passage, a camber line being defined by the locus of the centres of the circles tangent to both the upper inner profile and lower inner profile; and - said intake passage further comprises in flow series: an intake lip, a most upstream portion of which defines the intake highlight and a most downstream portion of which defines a throat, a diffuser with sectional area broadening towards the fan; and a straight conditioning duct, arranged immediately upstream of the fan, an intake lip, a most upstream portion of which defines the intake highlight and a most downstream portion of which defines a throat, a diffuser with sectional area broadening towards the fan; and a straight conditioning duct, arranged immediately upstream of the fan,
A pour-out member having a pour-out port through which a viscous fluid is discharged, wherein a hydrophobic layer of fine hydrophobic inorganic particles is selectively formed on an upper end surface of a base member forming said pour-out port, wherein an interfacial profile between said hydrophobic layer and the base member has a surface roughness Rz (JIS B-0601-2001) of not less than 0.05 μm, characterized in that said interfacial profile is formed by pushing said fine inorganic particles onto said upper end surface of said base member.
An engine with an honeycomb structure, the engine comprising a first region with an exhaust stream and a second region cooler than the first region, the honeycomb structure (100; 200; 300; 400) comprising: a plurality of cells defined by a plurality of cellular walls bonded to a first surface of the first region and a second surface of the second region, wherein each of the cellular walls comprises: a first sheet (202; 302; 402) of a first material, the first material comprising a metal comprising a first high strength metal; and a second sheet (204; 304; 404) of a second material bonded to the first sheet, the second material comprising a high thermal conductivity material, the honeycomb is characterised in that the second material has a higher thermal conductivity than the first material and conducts heat from the exhaust stream to the second region. a plurality of cells defined by a plurality of cellular walls bonded to a first surface of the first region and a second surface of the second region, wherein each of the cellular walls comprises: a first sheet (202; 302; 402) of a first material, the first material comprising a metal comprising a first high strength metal; and a second sheet (204; 304; 404) of a second material bonded to the first sheet, the second material comprising a high thermal conductivity material, a first sheet (202; 302; 402) of a first material, the first material comprising a metal comprising a first high strength metal; and a second sheet (204; 304; 404) of a second material bonded to the first sheet, the second material comprising a high thermal conductivity material,
A seal support structure for a gas path seal disposed downstream of a blade rotor and a hammerhead cover plate in a turbomachine, comprising; an annular mounting portion shaped to mount to an inner case of a turbomachine and having a seal mount attached thereto; and a cylindrical leg portion (203; 403; 603) disposed on the mounting portion extending axially from the mounting portion, wherein the cylindrical leg portion includes: a radially extending flange that extends from an end of the cylindrical leg portion, and characterised by a windage shield (307; 407; 607) extending in a radial direction from the cylindrical leg portion to contact an underside of the seal mount with a curved end portion (407b; 607a); wherein the windage shield is annular, and wherein an oil weep aperture (411, 611) is defined in the annular mounting portion and/or the cylindrical leg portion to prevent pooling behind the windage shield. an annular mounting portion shaped to mount to an inner case of a turbomachine and having a seal mount attached thereto; and a cylindrical leg portion (203; 403; 603) disposed on the mounting portion extending axially from the mounting portion, wherein the cylindrical leg portion includes: a radially extending flange that extends from an end of the cylindrical leg portion, and characterised by a windage shield (307; 407; 607) extending in a radial direction from the cylindrical leg portion to contact an underside of the seal mount with a curved end portion (407b; 607a); a radially extending flange that extends from an end of the cylindrical leg portion, and characterised by a windage shield (307; 407; 607) extending in a radial direction from the cylindrical leg portion to contact an underside of the seal mount with a curved end portion (407b; 607a); wherein the windage shield is annular, and wherein an oil weep aperture (411, 611) is defined in the annular mounting portion and/or the cylindrical leg portion to prevent pooling behind the windage shield.
Power transmitting system, characterized in that it comprises at least three first pulleys (1, 5, 9') having a first diameter, having a first rotation axis mutually identical and adapted to operatively cooperate with at least two second pulleys (3, 7'), having a second diameter and having a second rotation axis mutually identical and different from the first rotation axis, the first diameter being greater than the second diameter, and a rope adapted to pass in succession around a circumference of one of the first pulleys (1, 5, 9'), then around a circumference of one of the second pulleys (3, 7'), then around a circumference of another of the first pulleys (1, 5, 9'), then around a circumference of another of the second pulleys (3, 7'), and then around a circumference of another of the first pulleys (1, 5, 9') in order to follow a path adapted to provide an extended friction surface for the rope, the axes of the pulleys (1, 3, 5, 7', 9') laying on a same plane and not being mutually parallel, but having an angle which allows the alignment of the outlet ropes with the throat of the following pulley to avoid rubbing and wear, so that said power transmitting system is operatively connected to a generator placed on the ground and adapted to generate energy coming from a wind generator placed at an upper level and operatively connected to another power transmitting system, the two power transmitting systems being further mutually operatively connected through the same rope.
A laser process alignment measuring method applicable to a reel-to-reel manufacturing process including a printing ink stage and a laser process stage, characterised in that before the laser process stage, on the surface of the base or carrier material of the web are made marks, patterns or surfaces (4, 9) with printing ink, on which the laser beam used can make a mark (7, 10) by removing or changing the printing ink, wherein at the laser process stage, another mark is plotted with the laser beam on the said mark printed with printing ink, and the positions of the mark printed with printing ink (4, 9) and the mark plotted with the laser (7, 10) are read optically to measure the alignment of the printing ink stage and the laser process stage.
A device for wireless communications, the device comprising: a first radio configured to receive an indication of when the first radio is scheduled to receive first wireless signal over a first wireless network; a second radio configured to transmit a second wireless signal over a second wireless network; and a non-wireless interface configured to convey, from the first radio to the second radio, timing information indicating a scheduled reception time for the first wireless signal based on the received indication; wherein the second radio is further configured to compare an intended transmission period of the second wireless signal with the scheduled reception time of the first radio, and when these do overlap, delay transmitting the second wireless signal until the scheduled reception time for the first wireless signal expires, and wherein the device is configured to use a network allocation vector to delay the second wireless transmission by the second radio until the scheduled reception time expires. a first radio configured to receive an indication of when the first radio is scheduled to receive first wireless signal over a first wireless network; a second radio configured to transmit a second wireless signal over a second wireless network; and a non-wireless interface configured to convey, from the first radio to the second radio, timing information indicating a scheduled reception time for the first wireless signal based on the received indication; wherein the second radio is further configured to compare an intended transmission period of the second wireless signal with the scheduled reception time of the first radio, and when these do overlap, delay transmitting the second wireless signal until the scheduled reception time for the first wireless signal expires, and wherein the device is configured to use a network allocation vector to delay the second wireless transmission by the second radio until the scheduled reception time expires.
An endoscope comprising: an insertion tube; a working channel within the insertion tube; and a protecting feature disposed within at least a portion of the working channel, the protecting feature adapted to protect the working channel from thermal damage and/or from mechanical damage caused by a medical instrument in the working channel, characterized in that the protecting feature includes a first pair of opposing parallel plate capacitors (28a1,28a2), wherein during use, a change in capacitance between the first pair of opposing parallel plate capacitors (28a1,28a2) is indicative of the medical instrument being located in the working channel. an insertion tube; a working channel within the insertion tube; and a protecting feature disposed within at least a portion of the working channel, the protecting feature adapted to protect the working channel from thermal damage and/or from mechanical damage caused by a medical instrument in the working channel,
A recombinant viral vector comprising a nucleic acid sequence encoding human ornithine transcarbamylase (hOTC) protein and expression control sequences which direct expression of hOTC in a liver cell, wherein the hOTC nucleic acid sequence is less than 80% identical to the wild-type hOTC sequence of SEQ ID NO: 1 encoding the mature or full length hOTC protein, and expresses a functional hOTC, wherein said hOTC nucleic acid sequence is selected from the nucleic acid sequence comprising SEQ ID NO: 5 or a nucleic acid sequence at least 96 % to 99 % identical thereto.
A method of producing a polymer-modified asphalt, comprising: blending asphalt and an aqueous dispersion of the styrene-butadiene copolymer dispersion, at a blending temperature exceeding the boiling point of water, wherein the blending temperature is preferably 150°C or greater comprising: polymerizing styrene and butadiene in an aqueous medium at a temperature of 40°C or greater, preferably at a temperature of 50°C or greater, to produce an uncured styrene-butadiene copolymer, wherein said polymerizing step occurs in the absence of acid monomers and produces a non-carboxylated styrene-butadiene copolymer; mixing a sulfur curing agent with the non-carboxylated styrene-butadiene copolymer to form an aqeous dispersion, said curing agent allowing the non-carboxylated styrene-butadiene copolymer to cure. blending asphalt and an aqueous dispersion of the styrene-butadiene copolymer dispersion, at a blending temperature exceeding the boiling point of water, wherein the blending temperature is preferably 150°C or greater comprising: polymerizing styrene and butadiene in an aqueous medium at a temperature of 40°C or greater, preferably at a temperature of 50°C or greater, to produce an uncured styrene-butadiene copolymer, wherein said polymerizing step occurs in the absence of acid monomers and produces a non-carboxylated styrene-butadiene copolymer; mixing a sulfur curing agent with the non-carboxylated styrene-butadiene copolymer to form an aqeous dispersion, said curing agent allowing the non-carboxylated styrene-butadiene copolymer to cure.
A method for splicing an advertisement, comprising: performing real-time transport protocol, RTP, encapsulation processing on coded video data, to obtain a RTP packet and a real-time transport protocol control protocol, RTCP, packet; characterized in that, carrying splice information in the obtained RTCP packet, and sending the RTCP packet to a splicer, so that the splicer splices a received targeted advertisement into an advertisement avail of the video data according to the splice information in the received RTCP packet; wherein a subtype of the RTCP packet indicates that the RTCP packet carries the splice information. performing real-time transport protocol, RTP, encapsulation processing on coded video data, to obtain a RTP packet and a real-time transport protocol control protocol, RTCP, packet; characterized in that, carrying splice information in the obtained RTCP packet, and sending the RTCP packet to a splicer, so that the splicer splices a received targeted advertisement into an advertisement avail of the video data according to the splice information in the received RTCP packet; wherein a subtype of the RTCP packet indicates that the RTCP packet carries the splice information.