mhurhangee/ep-ind-claims huggingface dataset:
An elongated flexible conduit structured to extend between a source of breathing gas and a patient interface, the conduit being structured to communicate a flow of breathing gas between the source of breathing gas and the patient interface to provide the flow of breathing gas to a patient, the conduit comprising: an elongated flow element comprising a first elongated wall segment and a second elongated wall segment; the first wall segment being connected longitudinally at its sides with the second wall segment to form as the elongated flow element a wall that is continuous in a circumferential direction perpendicular to the direction of elongation; the flow element being structured to be movable between a first configuration and a second configuration; the first configuration being an expanded configuration wherein the wall is of a nominally annular cross sectional shape wherein at least a portion of a first inner surface of the first wall segment and at least a portion of a second inner surface of the second wall segment are opposed to one another and extend about a perimeter of an elongated interior region that is structured to carry the flow of breathing gas; and the second configuration being a collapsed configuration wherein at least a portion of the first surface and at least a portion of the second inner surface are engaged with one another; characterized in that the wall comprises a reinforcement element having fibers formed of a shape memory material, which, in response to an application of heat, are structured to return to a cold-forged shape and to thereby return the wall to the expanded configuration. an elongated flow element comprising a first elongated wall segment and a second elongated wall segment; the first wall segment being connected longitudinally at its sides with the second wall segment to form as the elongated flow element a wall that is continuous in a circumferential direction perpendicular to the direction of elongation; the flow element being structured to be movable between a first configuration and a second configuration; the first configuration being an expanded configuration wherein the wall is of a nominally annular cross sectional shape wherein at least a portion of a first inner surface of the first wall segment and at least a portion of a second inner surface of the second wall segment are opposed to one another and extend about a perimeter of an elongated interior region that is structured to carry the flow of breathing gas; and the second configuration being a collapsed configuration wherein at least a portion of the first surface and at least a portion of the second inner surface are engaged with one another; characterized in that the wall comprises a reinforcement element having fibers formed of a shape memory material, which, in response to an application of heat, are structured to return to a cold-forged shape and to thereby return the wall to the expanded configuration.
A communication device, comprising: a ground element; and an antenna element, disposed adjacent to the ground element, wherein the antenna element comprises: a first radiation element, comprising a first portion and a second portion, the first portion is coupled to a signal source, the second portion comprises a plurality of bends such that a coupling gap is formed between an open end of the second portion and the first portion; a second radiation element, wherein the second radiation element has a shorted end and an open end, the shorted end is coupled to the ground element, and the second radiation element extends and at least partially surrounds the first radiation element, and characterized in that the first portion is coupled through an inductive element to the second portion, and wherein the open end of the second portion of the first radiation element is substantially located between the first portion of the first radiation element and the ground element. a ground element; and an antenna element, disposed adjacent to the ground element, wherein the antenna element comprises: a first radiation element, comprising a first portion and a second portion, the first portion is coupled to a signal source, the second portion comprises a plurality of bends such that a coupling gap is formed between an open end of the second portion and the first portion; a second radiation element, wherein the second radiation element has a shorted end and an open end, the shorted end is coupled to the ground element, and the second radiation element extends and at least partially surrounds the first radiation element, and characterized in that the first portion is coupled through an inductive element to the second portion, and wherein the open end of the second portion of the first radiation element is substantially located between the first portion of the first radiation element and the ground element. a first radiation element, comprising a first portion and a second portion, the first portion is coupled to a signal source, the second portion comprises a plurality of bends such that a coupling gap is formed between an open end of the second portion and the first portion; a second radiation element, wherein the second radiation element has a shorted end and an open end, the shorted end is coupled to the ground element, and the second radiation element extends and at least partially surrounds the first radiation element, and characterized in that the first portion is coupled through an inductive element to the second portion, and wherein the open end of the second portion of the first radiation element is substantially located between the first portion of the first radiation element and the ground element.
A method for processing, in an Internet Protocol Multimedia Subsystem, IMS, an abnormality of an Application Server, AS, characterized in that the method comprises: sending, by a Serving Call Session Control Function, SCSCF, an Accounting Request, ACR, message to a Charging Data Function, CDF, wherein the ACR message includes information of an abnormal AS; wherein the information of an abnormal AS includes an Attribute Value Pair, AVP; wherein the AVP includes a host name of the abnormal AS; and after the CDF receives the ACR message, filling, by the CDF, a Charging Data Record, CDR, of the SCSCF with the information of the abnormal AS included in the ACR message. sending, by a Serving Call Session Control Function, SCSCF, an Accounting Request, ACR, message to a Charging Data Function, CDF, wherein the ACR message includes information of an abnormal AS; wherein the information of an abnormal AS includes an Attribute Value Pair, AVP; wherein the AVP includes a host name of the abnormal AS; and after the CDF receives the ACR message, filling, by the CDF, a Charging Data Record, CDR, of the SCSCF with the information of the abnormal AS included in the ACR message.
Production arrangement for performing a chemical reaction, comprising a standard transport container, in particular in accordance with DIN ISO 668, for receiving multiple processing units arranged within the standard transport container, for assisting and/or performing a basic chemical-engineering operation, and a supply network, arranged within the standard transport container, for supplying the processing units with material and/or energy and/or information, characterized in that the supply network is arranged above the processing units, in the direction of gravitational force, for supplying the processing units from above.
An expression vector comprising an engineered KCNA1 gene encoding an edited Kv1.1 potassium channel operably linked to a promoter suitable to drive expression of the edited Kv1.1 potassium channel in human cells, wherein the engineered KCNA1 gene has a nucleotide sequence having at least 90% sequence identity to the nucleotide sequence shown in SEQ ID NO: 1, and wherein the edited Kv1.1 potassium channel has an amino acid sequence having at least 90% sequence identity to the amino acid sequence shown in SEQ ID NO:2 and comprises a valine amino acid residue at a position corresponding to amino acid residue 400 shown in SEQ ID NO: 2. wherein the engineered KCNA1 gene has a nucleotide sequence having at least 90% sequence identity to the nucleotide sequence shown in SEQ ID NO: 1, and wherein the edited Kv1.1 potassium channel has an amino acid sequence having at least 90% sequence identity to the amino acid sequence shown in SEQ ID NO:2 and comprises a valine amino acid residue at a position corresponding to amino acid residue 400 shown in SEQ ID NO: 2.
Electronic weighing machine with an integrated computer, which comprises: - an input unit for the input of selection data, - a memory for storing a plurality of parameter values which are allocated to function-specific parameters in dependence on the input selection data, - a data processing unit for performing weighing applications in dependence on a sub-quantity of the function-specific parameters, - at least one interface for interaction with mechanical and/or electronic components in dependence on a subset of the function-specific parameters, wherein for adaptation to user-specific and/or application-specific specifications a plurality of different profiles (24; 24') as individual parameter value sets is stored, wherein through selection of a specific profile (24; 24') a common allocation of the values contained therein to the corresponding parameters takes place, characterised in that the parameters are assigned to a plurality of non-overlapping parameter groups (26, 28, 30), each individual profile contains only such values as are allocated to the parameters of exactly one parameter group (26, 28, 30) and the parameter values of at least one profile are allocated to each parameter group (26, 28, 30). - an input unit for the input of selection data, - a memory for storing a plurality of parameter values which are allocated to function-specific parameters in dependence on the input selection data, - a data processing unit for performing weighing applications in dependence on a sub-quantity of the function-specific parameters, - at least one interface for interaction with mechanical and/or electronic components in dependence on a subset of the function-specific parameters,
Brake pad, the pad comprising a sole plate with an outer face and an inner face, and a lining made of friction material fixed to said inner face, the lining being delimited by a friction face, an attachment face, an inner edge, an outer edge, a rear edge, and a front edge, the lining being provided with at least one collection groove that is open on the friction face and is located at least in part near the rear edge, the sole plate comprising at least one suction hole in fluid communication with said at least one collection groove, said at least one suction hole being connected to a negative pressure source via communication means, said at least one collection groove being characterized in that it is extended, at at least one of its ends, by a duct of which the outer end is open away from said friction face, via an inlet, and of which the inner end is open in said at least one collection groove via an outlet which forms a cross-sectional jump with said at least one groove such that, during operation, a negative pressure exists between said inlet of the duct and said at least one collection groove one on each side of said duct, said outer end being open in the region of the at least one among said edges (21, 22, 23, 24) which is closest to said sole plate and which is not consumed at the end of the normal operating life of said pad, said region extending over a certain percentage of the height of said lining measured from said sole plate.
Use of lithium nitrate, as sole lithium salt providing the ion conductivity in a lithium battery comprising at least one positive electrode, at least one non-aqueous electrolyte and at least one negative electrode based on lithium metal or on a lithium alloy, said positive electrode and said electrolyte being one or both gelled, said battery being devoid of polysulfide ions, for improving the lifetime of said battery.
A method for producing martensitic steel that comprises a content of other metals such that the steel can be hardened by an intermetallic compound and carbide precipitation, with a martensitic transformation temperature Mf below 0°C, this thermal treatment method comprising the following steps: (a) heating the entirety of the steel above the austenizing temperature thereof, (b) cooling said steel to around the ambient temperature, (c) placing said steel into a cryogenic medium at a temperature T 1, the method being characterized in that the temperature T 1 is substantially less than the martensitic transformation temperature Mf, and the time for keeping said steel in said cryogenic medium from the moment when the hottest portion of the steel reaches a temperature lower than the martensitic transformation temperature Mf, is at least equal to a time t 1 longer than 1 hour, the temperature T 1 (in °C) and the time t 1 (in hours) being substantially linked by the equation T 1 = f (t 1), the function f being substantially given by f t = 57.666 × 1 − 1 / t 0.3 − 0.14 1.5 − 97.389. or by a temperature-translated curve relative to f (t), wherein said steel has for composition: 0.18 to 0.3% of C, 5 to 7% of Co, 2 to 5% of Cr, 1 to 2% of Al, 1 to 4% of Mo+W/2, traces to 0.3% of V, traces to 0.1% of Nb, traces to 50 ppm of B, 10.5 to 15% of Ni with Ni ≥ 7+3.5 Al, traces to 0.4% of Si, traces to 0.4% of Mn, traces to 500 ppm of Ca, traces to 500 ppm of rare earths, traces to 500 ppm of Ti, traces to 50 ppm of O if developed from molten metal or to 200 ppm of O if developed through powder metallurgy, traces to 100 ppm of N, traces to 50 ppm of S, traces to 1% of Cu, traces to 200 ppm of P, the rest being Fe. (a) heating the entirety of the steel above the austenizing temperature thereof, (b) cooling said steel to around the ambient temperature, (c) placing said steel into a cryogenic medium at a temperature T 1,
An arrangement comprising a furniture hinge for pivotally connecting a furniture part movably-supported relative to a furniture carcass, and a fastening adaptor for fastening the furniture hinge to the furniture carcass, the furniture hinge including at least two fitting portions (5, 6) hingedly connected to one another, wherein at least one of the fitting portions (5, 6) of the furniture hinge is configured to be at least partially countersunk within a plate-shaped member of the furniture carcass, wherein the fastening adaptor includes at least one fastening device configured to be fixed to the furniture carcass and at least one recess for at least partially receiving the countersinkable fitting portion (5, 6) of the furniture hinge, characterized in that a fitting portion (5, 6) includes a, preferably substantially cuboidal, housing which, for the most part, can be received, preferably substantially entirely, within the recess of the fastening adaptor, and wherein the fastening adaptor projects transversely from the furniture carcass in a mounted condition.
A control method for controlling an internal combustion power train comprising an internal combustion engine having an engine block containing the rotary members and comprising a crankcase, and a cylinder head in which a number of cylinders are formed; the control method comprising the steps of: measuring the values of various operating parameters of the power train by means of a number of sensors; and monitoring operation of the engine using the values of the operating parameters of the power train by means of at least one control unit, which is physically separated from the engine block and connected to the sensors; the control method being characterized by comprising the further steps of: determining the intensity of pressure waves including acoustic noise, even in the non-audible range, generated by the power train, by means of at least one acoustic pressure sensor housed in the control unit and physically separated from the engine block; and determining, by means of the control unit, the value of at least one operating parameter of the power train including the speed of rotary members of the power train or combustion phenomena inside the cylinders of the engine as a function of the intensity of the pressure waves generated by the power train and by processing the intensity of the pressure waves in frequency. measuring the values of various operating parameters of the power train by means of a number of sensors; and monitoring operation of the engine using the values of the operating parameters of the power train by means of at least one control unit, which is physically separated from the engine block and connected to the sensors; the control method being characterized by comprising the further steps of: determining the intensity of pressure waves including acoustic noise, even in the non-audible range, generated by the power train, by means of at least one acoustic pressure sensor housed in the control unit and physically separated from the engine block; and determining, by means of the control unit, the value of at least one operating parameter of the power train including the speed of rotary members of the power train or combustion phenomena inside the cylinders of the engine as a function of the intensity of the pressure waves generated by the power train and by processing the intensity of the pressure waves in frequency. determining the intensity of pressure waves including acoustic noise, even in the non-audible range, generated by the power train, by means of at least one acoustic pressure sensor housed in the control unit and physically separated from the engine block; and determining, by means of the control unit, the value of at least one operating parameter of the power train including the speed of rotary members of the power train or combustion phenomena inside the cylinders of the engine as a function of the intensity of the pressure waves generated by the power train and by processing the intensity of the pressure waves in frequency.
A wireless communication method, comprising: receiving, by a terminal device, a first physical downlink control channel, PDCCH, from a network device, wherein the first PDCCH indicates one or more first time-frequency resources scheduled by the network device for the terminal device; receiving, by the terminal device, at least one piece of first posterior resource indication information from the network device, wherein the at least one piece of first posterior resource indication information indicates at least one reallocated time-frequency resource in the one or more first time-frequency resources; receiving, by the terminal device based on the PDCCH and the at least one piece of first posterior resource indication information, downlink data from the network device on time-frequency resource that is in the one or more first time-frequency resources and that is not overlapped with the at least one reallocated time-frequency resource; and skipping, by the terminal, demodulation or decoding, according to the first PDCCH and the at least one piece of first posterior resource indication information, data carried on the at least one reallocated time-frequency resource. receiving, by a terminal device, a first physical downlink control channel, PDCCH, from a network device, wherein the first PDCCH indicates one or more first time-frequency resources scheduled by the network device for the terminal device; receiving, by the terminal device, at least one piece of first posterior resource indication information from the network device, wherein the at least one piece of first posterior resource indication information indicates at least one reallocated time-frequency resource in the one or more first time-frequency resources; receiving, by the terminal device based on the PDCCH and the at least one piece of first posterior resource indication information, downlink data from the network device on time-frequency resource that is in the one or more first time-frequency resources and that is not overlapped with the at least one reallocated time-frequency resource; and skipping, by the terminal, demodulation or decoding, according to the first PDCCH and the at least one piece of first posterior resource indication information, data carried on the at least one reallocated time-frequency resource.
An article comprising: a glass substrate having opposing major surfaces, a thickness ranging from 50μm to 5mm and a first average strain-to-failure measured using ball-on-ring testing; a crack mitigating layer disposed on a first major surface; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured using ball-on-ring testing that is less than the first average strain-to-failure, wherein the crack mitigating layer prevents cracks originating in one of the film or the glass substrate from bridging to the other of the film or the glass substrate, wherein the crack mitigating layer comprises polyimide and has a thickness in the range from 0.01 μm to 10μm, wherein the film comprises a transparent conductive oxide layer, and wherein the glass substrate is chemically strengthened and has a surface compressive stress greater than 500 MPa and a compressive depth-of-layer greater than 15 μm. a glass substrate having opposing major surfaces, a thickness ranging from 50μm to 5mm and a first average strain-to-failure measured using ball-on-ring testing; a crack mitigating layer disposed on a first major surface; and a film disposed on the crack mitigating layer having a second average strain-to-failure measured using ball-on-ring testing that is less than the first average strain-to-failure, wherein the crack mitigating layer prevents cracks originating in one of the film or the glass substrate from bridging to the other of the film or the glass substrate, wherein the crack mitigating layer comprises polyimide and has a thickness in the range from 0.01 μm to 10μm, wherein the film comprises a transparent conductive oxide layer, and wherein the glass substrate is chemically strengthened and has a surface compressive stress greater than 500 MPa and a compressive depth-of-layer greater than 15 μm.
A moving picture encoding method for forming a stereo picture with a sequence of pictures in which a first frame and a second frame following the first frame are set to a left-view picture and a right-view picture, respectively, executing compression encoding of the first and second frames alternately, wherein different output timings (12, 14) are encoded with the first and second frames, respectively, and adding stereo information indicating formation of the stereo picture to generate encoded data, wherein the method includes a step of adding, to the stereo information, output timing information indicating that a first decoded frame obtained by decoding the first frame and a second decoded frame obtained by decoding the second frame are to be outputted simultaneously in matching with an output timing of either the first decoded frame or the second decoded frame to a buffer for storing a picture to be displayed before output to a display apparatus or to a buffer for a display processing, wherein either the first frame or the second frame is specified as output time in the output timing information.