mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic steam measurement system, comprising: a transducer assembly configured to be coupled to a distal end of an isolation valve installed on a pressurized steam pipe; an ultrasonic transducer movably disposed within the transducer assembly, the ultrasonic transducer extending through a proximal opening of the transducer assembly and extending through a distal opening of the transducer assembly; and an insertion mechanism configured to be coupled to a distal end of the transducer assembly and having a cylindrical insertion mechanism housing at least partially enclosing the ultrasonic transducer, the insertion mechanism including a linear actuator assembly configured to linearly actuate the ultrasonic transducer; wherein the transducer assembly includes a barrel assembly, the barrel assembly including an elongated barrel surrounding at least a portion of the ultrasonic transducer; characterized by the barrel assembly further including a barrel flange disposed at or near a distal end of the barrel, the barrel flange extending outwardly from the barrel; and wherein, after linear actuation of a portion of the ultrasonic transducer into the pressurized steam pipe, the barrel flange is configured to be attached to a distal flange of the transducer assembly, thereby holding the barrel assembly in place within the transducer assembly. a transducer assembly configured to be coupled to a distal end of an isolation valve installed on a pressurized steam pipe; an ultrasonic transducer movably disposed within the transducer assembly, the ultrasonic transducer extending through a proximal opening of the transducer assembly and extending through a distal opening of the transducer assembly; and an insertion mechanism configured to be coupled to a distal end of the transducer assembly and having a cylindrical insertion mechanism housing at least partially enclosing the ultrasonic transducer, the insertion mechanism including a linear actuator assembly configured to linearly actuate the ultrasonic transducer; wherein the transducer assembly includes a barrel assembly, the barrel assembly including an elongated barrel surrounding at least a portion of the ultrasonic transducer; characterized by the barrel assembly further including a barrel flange disposed at or near a distal end of the barrel, the barrel flange extending outwardly from the barrel; and wherein, after linear actuation of a portion of the ultrasonic transducer into the pressurized steam pipe, the barrel flange is configured to be attached to a distal flange of the transducer assembly, thereby holding the barrel assembly in place within the transducer assembly.
A method comprising: detecting in a terminal that a signal quality of a downlink shared channel is below a threshold quality, wherein the downlink shared channel is received from a serving cell in a network, when a dedicated control channel is mapped to the downlink shared channel; characterized in that it further comprises autonomously moving the terminal from a cell dedicated channel (CELL_DCH) protocol state to a cell forward access channel (CELL_FACH) protocol state based at least partly on said detecting; and performing automatic re-establishment of a signaling carrying connection between the terminal and the network. detecting in a terminal that a signal quality of a downlink shared channel is below a threshold quality, wherein the downlink shared channel is received from a serving cell in a network, when a dedicated control channel is mapped to the downlink shared channel;
A lithium secondary battery comprising a negative electrode having a negative electrode collector and a negative electrode layer including a negative electrode active material and formed on the surface of the negative electrode collector, wherein the negative electrode layer comprises a negative electrode active material layer composed primarily of a negative electrode active material, and an insulating layer composed primarily of an insulating filler and formed on the negative electrode active material layer, and a ratio (Sb/Sa) of a pore specific surface area of the insulating layer (Sb: m 2 /g) to a pore specific surface area of the negative electrode active material layer (Sa: m 2 /g), as measured by a mercury porosimeter, satisfies the relationship 1.2 ≤ (Sb/Sa) ≤ 2.5, and in a pore distribution of the negative electrode layer as measured by the mercury porosimeter, the mode diameter of pores in the negative electrode active material layer is 0.19 μm to 0.21 μm, and the mode diameter of pores in the insulating layer is 0.72 μm to 0.75 μm.
A heater tube assembly comprising: a tube (24A, 24B); a bus bar network on the tube (24A, 24B); a positive temperature coefficient heater on the tube (24A, 24B), wherein the positive temperature coefficient heater is electrically connected to the bus bar network; and an outer dielectric layer overlaying the bus bar network and the positive temperature coefficient heater; the heater tube assembly being characterised in that the bus bar network comprises one or more layers of a first additively manufactured conductive ink, the positive temperature coefficient heater comprising one or more layers of a second additively manufactured conductive ink, and that the heater tube assembly comprises a closeout adhesive applied on top of the positive temperature coefficient heater and the bus bar network securing the bus bar network and the positive temperature coefficient heater to the tube (24A, 24B) and separating the bus bar network and the positive temperature coefficient heater from an external environment. a tube (24A, 24B); a bus bar network on the tube (24A, 24B); a positive temperature coefficient heater on the tube (24A, 24B), wherein the positive temperature coefficient heater is electrically connected to the bus bar network; and an outer dielectric layer overlaying the bus bar network and the positive temperature coefficient heater; the heater tube assembly being characterised in that the bus bar network comprises one or more layers of a first additively manufactured conductive ink, the positive temperature coefficient heater comprising one or more layers of a second additively manufactured conductive ink, and that the heater tube assembly comprises a closeout adhesive applied on top of the positive temperature coefficient heater and the bus bar network securing the bus bar network and the positive temperature coefficient heater to the tube (24A, 24B) and separating the bus bar network and the positive temperature coefficient heater from an external environment.
A water boiler comprising a heating element and a water container having side walls defining a sealed volume within which water may be received and heated by the heating element, at least one of the side walls being removable to provide access to the volume, wherein the removable side wall is configured to receive and locate the heating element such that removal of the removable side wall effects a corresponding removal of the heating element, characterized in that the heating element is a planar heating element extending substantially perpendicular to a major axis of the water container; and the water boiler further comprises a spray valve located on the planar heating element, the spray valve configured to spray incoming water on the planar heating element to achieve a rapid heating of water within the water container.
A V-belt having a number of upper cogs and upper roots with upper pitch and upper curvilinear profile, a number of lower cogs and lower roots with lower pitch and lower curvilinear profile, and a reinforcing tensile layer substantially midway between the upper roots and the lower roots; with the upper profile symmetric and comprising lines ("L") and arcs ("A") connected according to the sequence L1-A1-L2-A2-L3 from the center of any of said upper roots to the center of an adjacent cog of said upper cogs; with the lower profile symmetric and comprising lines and arcs connected according to the sequence L4-A3-L5-A4-L6, wherein L4 can have zero length, from the center of any of said lower roots to the center of an adjacent cog of said lower cogs; and with the sum of the length of L1 plus the radius of A1 equal to or within 20% of the sum of the length of L4 plus the radius of A3; and wherein arc segments A1, A2, A3 and A4 have finite and non-zero radius and length and wherein line segments L1, L2, L3, L5 and L6 have finite and non-zero length; and with at least one of said upper roots being substantially aligned with at least one of said lower roots, characterised in that the upper roots have a flat portion when the belt is laid out flat.
A garment comprising: - an attachment section and - a coverage section connected to the attachment section, whereby the coverage section comprises a holding means having two holding portions (10A, 10B) for receiving by the outer and inner labia of the labia gap, and whereby the coverage means is formed between the holding portions (10A, 10B) adapted to cover the area located between the holding portions (10A, 10B). characterized in that - the holding portions (10A, 10B) of the holding means are two convex holding parts (10A, 10B). - an attachment section and - a coverage section connected to the attachment section, - the holding portions (10A, 10B) of the holding means are two convex holding parts (10A, 10B).
A method of monitoring for a distressed sound using an array of digital telephony devices in communication with a digital telephony server, comprising: monitoring an amplitude of an ambient noise level using a microphone on at least one digital telephony device in the array of digital telephony devices when the digital telephony device is operating in an idle state; determining an ambient noise level based on the monitoring; updating the ambient noise level at selected intervals; detecting sounds received by the microphone that have an amplitude that is a selected amount greater than the ambient noise level; processing the detected sounds; determining if the processed sounds match a predetermined statistical model of a distressed sound; and sending a request for assistance, via the digital telephony device, related to the processed sounds that match the predetermined statistical model. monitoring an amplitude of an ambient noise level using a microphone on at least one digital telephony device in the array of digital telephony devices when the digital telephony device is operating in an idle state; determining an ambient noise level based on the monitoring; updating the ambient noise level at selected intervals; detecting sounds received by the microphone that have an amplitude that is a selected amount greater than the ambient noise level; processing the detected sounds; determining if the processed sounds match a predetermined statistical model of a distressed sound; and sending a request for assistance, via the digital telephony device, related to the processed sounds that match the predetermined statistical model.
A shovel comprising: a lower-part traveling body; an upper-part swing body rotatably provided above the lower-part traveling body; an object detecting device provided in the upper-part swing body; a control device provided in the upper-part swing body; and at least one driven body configured to be operated by an actuator, wherein the object detecting device is configured to detect an object in a detection space set around the shovel, and wherein the control device is configured to vary a movable range being a range accessible to the driven body, based on a state of the object detected by the object detecting device, such that the movable range decreases upon determining that the object in the detection space moves closer to the shovel or is estimated to move closer to the shovel; and that the movable range increases upon determining that the object in the detection space moves away from the shovel or is estimated to move away from the shovel, wherein the movable range is an angular range in which the upper-part swing body can turn relative to the lower-part traveling body without any restriction, wherein the control device allows the movement of the driven body in the movable range. a lower-part traveling body; an upper-part swing body rotatably provided above the lower-part traveling body; an object detecting device provided in the upper-part swing body; a control device provided in the upper-part swing body; and at least one driven body configured to be operated by an actuator, wherein the object detecting device is configured to detect an object in a detection space set around the shovel, and wherein the control device is configured to vary a movable range being a range accessible to the driven body, based on a state of the object detected by the object detecting device, such that the movable range decreases upon determining that the object in the detection space moves closer to the shovel or is estimated to move closer to the shovel; and that the movable range increases upon determining that the object in the detection space moves away from the shovel or is estimated to move away from the shovel, wherein the movable range is an angular range in which the upper-part swing body can turn relative to the lower-part traveling body without any restriction, wherein the control device allows the movement of the driven body in the movable range.
Coating structure for a sheet-like substrate comprising cellulosic fibres, the structure comprising at least one pre-coat layer and a top coat layer, where - the pre-coat layer(s) and the top coat layer comprise 10 - 90 weight-% of a styrene (meth)acrylate copolymer which is polymerised in the presence of a stabiliser, and which has a glass transition temperature Tg ≤ 20 °C, preferably ≤ 15 °C, more preferably ≤ 13 °C, wherein - the pre-coat layer(s) comprise 10 - 70 weight-% of styrene (meth)acrylate copolymer and 30 - 90 weight-% of a polysaccharide, such as starch, and - the top coat layer comprises - 5 - 60 weight-% of at least one water-soluble coating binder, which selected from polysaccharides and polyvinyl alcohols, as well as - at the most 5.0 weight-% of a cross-linker, which reacts with -OH or -COOH groups, and which is selected from ammonium zirconium carbonate, potassium zirconium carbonate, glyoxal or citric acid. - the pre-coat layer(s) and the top coat layer comprise 10 - 90 weight-% of a styrene (meth)acrylate copolymer which is polymerised in the presence of a stabiliser, and which has a glass transition temperature Tg ≤ 20 °C, preferably ≤ 15 °C, more preferably ≤ 13 °C, wherein - the pre-coat layer(s) comprise 10 - 70 weight-% of styrene (meth)acrylate copolymer and 30 - 90 weight-% of a polysaccharide, such as starch, and - the top coat layer comprises - 5 - 60 weight-% of at least one water-soluble coating binder, which selected from polysaccharides and polyvinyl alcohols, as well as - at the most 5.0 weight-% of a cross-linker, which reacts with -OH or -COOH groups, and which is selected from ammonium zirconium carbonate, potassium zirconium carbonate, glyoxal or citric acid. - 5 - 60 weight-% of at least one water-soluble coating binder, which selected from polysaccharides and polyvinyl alcohols, as well as - at the most 5.0 weight-% of a cross-linker, which reacts with -OH or -COOH groups, and which is selected from ammonium zirconium carbonate, potassium zirconium carbonate, glyoxal or citric acid.
An in vitro method of detecting predisposition to or diagnosis and/or prognosis of hepatic fibrosis or cirrhosis occurring in a subject, the method comprising detecting the presence of an alteration in the CTGF gene locus in a biological sample of said subject, wherein the alteration is SNP rs9402373, and wherein said hepatic fibrosis or cirrhosis is caused by hepatic A virus, hepatic B virus, hepatic C virus, Schistosoma japonicum or Schistosoma mansoni infection.
Warp knitting machine having at least one first bar, which carries first knitting tools (3, 3a) and at least one second bar which carries second knitting tools (5, 5a, 5b), wherein the first bar can be displaced by an offset drive in an offset direction relative to the second bar, wherein a sensor arrangement is provided which is designed to determine a position of the first bar at a predetermined proximity between first knitting tools (3, 3a) and second knitting tools (5, 5a, 5b), characterized in that the sensor arrangement comprises an electrical circuit with a switch which comprises at least one sensor knitting tool as switching element.
A method comprising: assembling a first ply stack, wherein the first ply stack comprises a plurality of uncured plies and a first adhesive film having a backing layer, the first adhesive film disposed along an intended bond line; applying pressure and heat to the first ply stack to debulk and compact the ply stack in order to form a first composite component, using a vacuum system including a sealing bag and at least one foreign material layer placed between the sealing bag and the first backing layer of the first adhesive film; curing the first composite component with a first cure cycle, wherein the first curing cycle fully cures the first composite component but the first adhesive film is at least partially uncured or fully uncured; assembling a second ply stack, wherein the second ply stack comprises a plurality of plies and a second adhesive film; applying pressure and heat to the second ply stack to debulk and compact the ply stack in order to form a second composite component; curing the second composite component with a second cure cycle, wherein the second curing cycle fully cures the second composite component but the second adhesive film is at least partially uncured or fully uncured; assembling the first composite component and the second composite component together using, at least in part, the first adhesive film on the first composite component and the second adhesive film on the second composite component; and curing the first adhesive film and the second adhesive film with a third curing cycle to form a bonded structure. assembling a first ply stack, wherein the first ply stack comprises a plurality of uncured plies and a first adhesive film having a backing layer, the first adhesive film disposed along an intended bond line; applying pressure and heat to the first ply stack to debulk and compact the ply stack in order to form a first composite component, using a vacuum system including a sealing bag and at least one foreign material layer placed between the sealing bag and the first backing layer of the first adhesive film; curing the first composite component with a first cure cycle, wherein the first curing cycle fully cures the first composite component but the first adhesive film is at least partially uncured or fully uncured; assembling a second ply stack, wherein the second ply stack comprises a plurality of plies and a second adhesive film; applying pressure and heat to the second ply stack to debulk and compact the ply stack in order to form a second composite component; curing the second composite component with a second cure cycle, wherein the second curing cycle fully cures the second composite component but the second adhesive film is at least partially uncured or fully uncured; assembling the first composite component and the second composite component together using, at least in part, the first adhesive film on the first composite component and the second adhesive film on the second composite component; and curing the first adhesive film and the second adhesive film with a third curing cycle to form a bonded structure.
A terminal apparatus, comprising: a receiver configured to receive a physical downlink control channel, PDCCH, including a downlink control information, DCI, format; and a transmitter configured to transmit a physical uplink shared chan-nel, PUSCH, based at least on detection of the PDCCH, wherein the terminal apparatus is adapted to a transmission time interval, TTI, length of the PUSCH of two or three single carrier-frequency division multiple access, SC-FDMA, symbols, and the terminal apparatus is adapted to activate a semi-persistent scheduling, SPS, assignment based on a fact that a cyclic redundancy check, CRC, sequence given for a payload in-10 cluded in the PDCCH is scrambled with a semi-persistent scheduling-cell-radio network temporary identifier, SPS-C-RNTI, a new data indicator included in the PDCCH is set to 0, and a bit of a demodulation reference signal, DMRS, pattern field included in the DCI format is set to a prescribed value, the prescribed value being one of either 0 or 1, the DMRS pattern field being used for indicat-15 ing physical resource mapping information for DMRS, and the DMRS pattern field indicates an index of an SC-FDMA symbol in which a DMRS associated with the PUSCH is mapped. a receiver configured to receive a physical downlink control channel, PDCCH, including a downlink control information, DCI, format; and a transmitter configured to transmit a physical uplink shared chan-nel, PUSCH, based at least on detection of the PDCCH, wherein the terminal apparatus is adapted to a transmission time interval, TTI, length of the PUSCH of two or three single carrier-frequency division multiple access, SC-FDMA, symbols, and the terminal apparatus is adapted to activate a semi-persistent scheduling, SPS, assignment based on a fact that a cyclic redundancy check, CRC, sequence given for a payload in-10 cluded in the PDCCH is scrambled with a semi-persistent scheduling-cell-radio network temporary identifier, SPS-C-RNTI, a new data indicator included in the PDCCH is set to 0, and a bit of a demodulation reference signal, DMRS, pattern field included in the DCI format is set to a prescribed value, the prescribed value being one of either 0 or 1, the DMRS pattern field being used for indicat-15 ing physical resource mapping information for DMRS, and the DMRS pattern field indicates an index of an SC-FDMA symbol in which a DMRS associated with the PUSCH is mapped.
A mixing method, comprising the following steps: providing at least two mixing assemblies in series for carrying a reactor, and synchronously driving the mixing assemblies to cyclically reciprocate between a first station and a second station using the same transport assembly; and adding a sample into the reactor at the first station, adding a reagent into the reactor at the second station, and mixing the sample and the reagent in the reactor; recording a shortest time window during which sequences of actions performed by the mixing assemblies can be cyclically reproduced as the first period, recording a value obtained by dividing the first period by a number of the mixing assemblies as a second period, starting from moving one of the mixing assemblies into the reactor for the first time, moving the reactors into each of the other mixing assemblies sequentially by sequentially staggering a time interval of the second period; and moving the reactors that have been mixed out of the mixing assemblies by sequentially staggering the time interval of the second period, and moving new reactors into the mixing assemblies from which the reactors are removed. providing at least two mixing assemblies in series for carrying a reactor, and synchronously driving the mixing assemblies to cyclically reciprocate between a first station and a second station using the same transport assembly; and adding a sample into the reactor at the first station, adding a reagent into the reactor at the second station, and mixing the sample and the reagent in the reactor; recording a shortest time window during which sequences of actions performed by the mixing assemblies can be cyclically reproduced as the first period, recording a value obtained by dividing the first period by a number of the mixing assemblies as a second period, starting from moving one of the mixing assemblies into the reactor for the first time, moving the reactors into each of the other mixing assemblies sequentially by sequentially staggering a time interval of the second period; and moving the reactors that have been mixed out of the mixing assemblies by sequentially staggering the time interval of the second period, and moving new reactors into the mixing assemblies from which the reactors are removed.