mhurhangee/ep-ind-claims huggingface dataset:
Method of communication between a remote configuration device and a remote configurable device (106, 108, 110, 111) interconnected in a digital communication network via a remote management connection, characterized in that said method comprises the steps, at the remote configuration device, of: if it is determined that said remote management connection is lost, - transmission, over a connection other than said remote management connection, to an address of said remote configurable device and to a predetermined port number of said remote configurable device, of a message comprising information and at least one command allowing reestablishment of said lost remote management connection by said remote configurable device; - reception of a request for reestablishment of said remote management connection, said request being a result of use by said remote configurable device of said information comprised in said message and of application by said remote management device of said at least one command. - transmission, over a connection other than said remote management connection, to an address of said remote configurable device and to a predetermined port number of said remote configurable device, of a message comprising information and at least one command allowing reestablishment of said lost remote management connection by said remote configurable device; - reception of a request for reestablishment of said remote management connection, said request being a result of use by said remote configurable device of said information comprised in said message and of application by said remote management device of said at least one command.
A method for operating an inkjet print head (4a-4d) for generating a droplet of a liquid, wherein the inkjet print head comprises a number of ejection units, each ejection unit comprising a piezo-electric actuator having a signal electrode, a common electrode and a piezo-electric layer interposed between the signal electrode and the common electrode, the method comprising a) providing a non-jetting pulse signal on a common electrode, the non-jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit without expelling a droplet of the liquid; and b) providing a jetting pulse signal on a signal electrode, the jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit such that a droplet of the liquid is expelled; and wherein the method comprises repeating step a) at a predetermined frequency for vibrating a meniscus of the liquid, independent of the step b); and wherein the jetting pulse signal is applied on an ejection unit simultaneously with part of the non-jetting pulse signal such that a resulting pulse over the corresponding piezo-electric layer is a superposition of the non-jetting pulse signal and the jetting pulse signal for ejecting the droplet. a) providing a non-jetting pulse signal on a common electrode, the non-jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit without expelling a droplet of the liquid; and b) providing a jetting pulse signal on a signal electrode, the jetting pulse signal being adapted to generate a pressure wave in the liquid in the corresponding ejection unit such that a droplet of the liquid is expelled; and wherein the method comprises repeating step a) at a predetermined frequency for vibrating a meniscus of the liquid, independent of the step b); and wherein the jetting pulse signal is applied on an ejection unit simultaneously with part of the non-jetting pulse signal such that a resulting pulse over the corresponding piezo-electric layer is a superposition of the non-jetting pulse signal and the jetting pulse signal for ejecting the droplet.
A computer-implemented method of guiding a user to customize a breathing exercise, comprising: at an electronic device (100, 300, 500) with a display and a rotatable input mechanism: detecting a time of performance associated with a first breathing sequence; generating prompting criteria based on a predetermined prompting frequency and the detected time of performance associated with the first breathing sequence; determining, at a first time, if the prompting criteria have been met; in accordance with a determination that the prompting criteria have been met, displaying, on the display, a prompt to initiate a second breathing sequence, wherein the prompt comprises a first affordance, wherein the prompting criteria include a criterion that is met when one or more of a device motion condition and a scheduled calendar event condition are met, and wherein the scheduled calendar event condition is met when no scheduled calendar event is present at the first time, and wherein the device motion condition is determined based on sensor data from one or more sensors of the electronic device; receiving user input selection of the first affordance; in response to receiving the user input selection of the first affordance, displaying, on the display, a second breathing sequence user interface; and while the second breathing sequence user interface is being displayed, in accordance with a determination that a first user input on the rotatable input mechanism is detected, concurrently adjusting the number of cycles of the second breathing sequence and a total length of time of the second breathing sequence. detecting a time of performance associated with a first breathing sequence; generating prompting criteria based on a predetermined prompting frequency and the detected time of performance associated with the first breathing sequence; determining, at a first time, if the prompting criteria have been met; in accordance with a determination that the prompting criteria have been met, displaying, on the display, a prompt to initiate a second breathing sequence, wherein the prompt comprises a first affordance, wherein the prompting criteria include a criterion that is met when one or more of a device motion condition and a scheduled calendar event condition are met, and wherein the scheduled calendar event condition is met when no scheduled calendar event is present at the first time, and wherein the device motion condition is determined based on sensor data from one or more sensors of the electronic device; receiving user input selection of the first affordance; in response to receiving the user input selection of the first affordance, displaying, on the display, a second breathing sequence user interface; and while the second breathing sequence user interface is being displayed, in accordance with a determination that a first user input on the rotatable input mechanism is detected, concurrently adjusting the number of cycles of the second breathing sequence and a total length of time of the second breathing sequence.
Method for the continuous production of profiled components from fibre-composite material by means of a moulding-chain installation, the fibre-composite material comprising a matrix material and an arrangement of reinforcement fibres, having the following method steps of: a. feeding endless rovings and/or endless woven-fabric, knitted-fabric or nonwoven webs; b. combining (7, 8) the rovings and/or webs to form an endless preform bundle; c. placing the preform bundle against a working strand (21, 22) of at least one circulating moulding chain (1, 2) of the moulding-chain installation; d. guiding the preform bundle through the moulding-chain installation by means of the working strand (21, 22) of the at least one moulding chain (1, 2), with an endless profile being formed by curing of the matrix material; e. ejecting the endless profile from the moulding-chain installation; f. cutting the endless profile to length to form the profiled component; wherein the rovings or webs are preimpregnated with the matrix material and/or are impregnated with a matrix material during one of method steps a), b) and c), wherein the working strand (21, 22) of the at least one moulding chain (1, 2) is guided in a sliding manner along a sliding guide on that side of the working strand (21, 22) that faces away from the preform bundle, and wherein the outer surface of the moulding chain (1, 2) is formed by surface members (a, b, c, d), characterized in that the moulding-chain sliding guide has at least one curvature, wherein the radius of curvature of the moulding-chain sliding guide is settable in a variable manner, and wherein the profiled component receives, in method step d), a profile that is selectable substantially as desired in terms of its longitudinal axis, in terms of its cross-sectional shape and/or in terms of its longitudinal surface, by way of the curvature of the moulding-chain sliding guide and/or by way of depressions and/or elevations in/on the moulding-chain surface, which extend in the chain longitudinal direction over several surface members (a, b, c, d). a. feeding endless rovings and/or endless woven-fabric, knitted-fabric or nonwoven webs; b. combining (7, 8) the rovings and/or webs to form an endless preform bundle; c. placing the preform bundle against a working strand (21, 22) of at least one circulating moulding chain (1, 2) of the moulding-chain installation; d. guiding the preform bundle through the moulding-chain installation by means of the working strand (21, 22) of the at least one moulding chain (1, 2), with an endless profile being formed by curing of the matrix material; e. ejecting the endless profile from the moulding-chain installation; f. cutting the endless profile to length to form the profiled component;
A refrigerator, comprising a refrigerator body and a door body, wherein a front side of the refrigerator body is open to define a first chamber; the door body comprises a main door and a secondary door, the main door is used for opening and closing the first chamber and defining a second chamber, and the secondary door is used for opening and closing the second chamber, wherein a rear wall of the main door is of a hollow structure to define an air duct, and a plurality of air diffusion micro-holes communicated with the second chamber and the air duct are backwards formed in a front surface of the rear wall; and the refrigerator is configured such that cold air produced by the refrigerator is introduced into the air duct, and then is allowed to enter the second chamber through the plurality of air diffusion micro-holes, wherein when the first chamber is closed by the main door, an air inlet of the air duct faces the first chamber to introduce cold air in the first chamber. a refrigerator body and a door body, wherein a front side of the refrigerator body is open to define a first chamber; the door body comprises a main door and a secondary door, the main door is used for opening and closing the first chamber and defining a second chamber, and the secondary door is used for opening and closing the second chamber, wherein a rear wall of the main door is of a hollow structure to define an air duct, and a plurality of air diffusion micro-holes communicated with the second chamber and the air duct are backwards formed in a front surface of the rear wall; and the refrigerator is configured such that cold air produced by the refrigerator is introduced into the air duct, and then is allowed to enter the second chamber through the plurality of air diffusion micro-holes, wherein when the first chamber is closed by the main door, an air inlet of the air duct faces the first chamber to introduce cold air in the first chamber.
An unsupported multilayered polymeric microporous membrane sheet having adjacent, inseparable, and integral retentive layers, wherein the membrane is free of: a dense interfacial layer between layers; and macrovoids; wherein all of the layers are asymmetrical.
A method of forming a manganese-containing film, the method comprising: providing a substrate, wherein the substrate comprises a dielectric layer disposed thereon; and exposing the substrate to a first precursor and a reactant, the first precursor comprising a manganese-containing organometallic compound to deposit a manganese-containing film on at least a portion of the dielectric layer, wherein the manganese-containing organometallic compound of the formula where each A is independently selected from carbon or silicon and each R is independently selected from hydrogen, methyl, substituted or un-substituted alkanes, branched or un-branched alkanes, substituted or un-substituted alkenes, branched or un-branched alkenes, substituted or un-substituted alkynes, branched or un-branched alkynes or substituted or un-substituted aromatics. providing a substrate, wherein the substrate comprises a dielectric layer disposed thereon; and exposing the substrate to a first precursor and a reactant, the first precursor comprising a manganese-containing organometallic compound to deposit a manganese-containing film on at least a portion of the dielectric layer, wherein the manganese-containing organometallic compound of the formula where each A is independently selected from carbon or silicon and each R is independently selected from hydrogen, methyl, substituted or un-substituted alkanes, branched or un-branched alkanes, substituted or un-substituted alkenes, branched or un-branched alkenes, substituted or un-substituted alkynes, branched or un-branched alkynes or substituted or un-substituted aromatics.
A high-voltage switch, comprising: a switching device, the switching device being a normally-off n-channel device having a gate terminal, a drain terminal, and a source terminal; a chain of transistors, the transistors being normally-on n-channel JFETs each having a gate terminal, a drain terminal, and a source terminal, wherein the transistors are connected in series drain-to-source, wherein the source of the first transistor in the chain is connected to the drain of the switching device; for each transistor in the chain from the second transistor in the chain to the penultimate transistor in the chain, there is a clamping device associated with the transistor, wherein an anode of the clamping device is connected to the source of the transistor, and a cathode of the clamping device is connected to the gate of the next transistor in the chain; an additional clamping device, where an anode of the additional clamping device is connected to the source of the first transistor in the chain and a cathode of the additional clamping device is connected to the gate of the second transistor in the chain, where the gate of the first transistor in the chain is connected to the source of the switching device; and for each transistor in the chain from the second transistor in the chain to the last transistor in the chain, a load circuit comprising a resistor, the load circuit being connected between the drain of the transistor and the gate of the transistor. a switching device, the switching device being a normally-off n-channel device having a gate terminal, a drain terminal, and a source terminal; a chain of transistors, the transistors being normally-on n-channel JFETs each having a gate terminal, a drain terminal, and a source terminal, wherein the transistors are connected in series drain-to-source, wherein the source of the first transistor in the chain is connected to the drain of the switching device; for each transistor in the chain from the second transistor in the chain to the penultimate transistor in the chain, there is a clamping device associated with the transistor, wherein an anode of the clamping device is connected to the source of the transistor, and a cathode of the clamping device is connected to the gate of the next transistor in the chain; an additional clamping device, where an anode of the additional clamping device is connected to the source of the first transistor in the chain and a cathode of the additional clamping device is connected to the gate of the second transistor in the chain, where the gate of the first transistor in the chain is connected to the source of the switching device; and for each transistor in the chain from the second transistor in the chain to the last transistor in the chain, a load circuit comprising a resistor, the load circuit being connected between the drain of the transistor and the gate of the transistor.
A method of establishing communication between wellbore components, the method characterized by: introducing a first cable to a down-hole location within a wellbore, the first cable including a first connector housing and a first core through which signals are transmissible, the first core extending into the first connector housing and a defining a first terminal end therein; introducing a second cable to the down-hole location, the second cable including a second connector housing and a second core through which signals are transmissible, the second core extending into the second connector housing and defining a second terminal end therein; providing a first motor to the down-hole location such that the first motor is operatively associated with the first terminal end for selectively moving the first terminal end with respect to the first connector housing; coupling the first connector housing to the second connector housing such that relative motion between the first and second connector housings (28, 34) is restricted and the first and second terminal ends (52, 54) are in a coarsely aligned arrangement; and activating the first motor to move the first terminal end in a lateral direction with respect to the first connector housing at the down-hole location to arrange the first and second terminal ends (52, 54) in a finely aligned arrangement wherein signals are transmissible between the first and second cores (76, 80). introducing a first cable to a down-hole location within a wellbore, the first cable including a first connector housing and a first core through which signals are transmissible, the first core extending into the first connector housing and a defining a first terminal end therein; introducing a second cable to the down-hole location, the second cable including a second connector housing and a second core through which signals are transmissible, the second core extending into the second connector housing and defining a second terminal end therein; providing a first motor to the down-hole location such that the first motor is operatively associated with the first terminal end for selectively moving the first terminal end with respect to the first connector housing; coupling the first connector housing to the second connector housing such that relative motion between the first and second connector housings (28, 34) is restricted and the first and second terminal ends (52, 54) are in a coarsely aligned arrangement; and activating the first motor to move the first terminal end in a lateral direction with respect to the first connector housing at the down-hole location to arrange the first and second terminal ends (52, 54) in a finely aligned arrangement wherein signals are transmissible between the first and second cores (76, 80).
A method for configuring a cyclic prefix for transmissions on a cellular network using a Radio Access Technology based on Orthogonal Frequency Division Multiplexing, OFDM, the method comprising: determining, at a User Equipment, UE, of the cellular network, first information for calculating a delay spread for transmission symbols from a first base station of the cellular network to the UE; determining, at the UE, second information for calculating a delay spread for transmission symbols from a second base station of the cellular network to the UE, the UE being configured to communicate with the first base station and with the second base station at the same time; and identifying a cyclic prefix for the transmissions based on the determined first information and the determined second information; and wherein the step of identifying a cyclic prefix for the transmissions is based on: the first information, if a delay spread calculated from the first information is longer than a delay spread calculated from the second information; and the second information, if a delay spread calculated from the second information is longer than a delay spread calculated from the first information. determining, at a User Equipment, UE, of the cellular network, first information for calculating a delay spread for transmission symbols from a first base station of the cellular network to the UE; determining, at the UE, second information for calculating a delay spread for transmission symbols from a second base station of the cellular network to the UE, the UE being configured to communicate with the first base station and with the second base station at the same time; and identifying a cyclic prefix for the transmissions based on the determined first information and the determined second information; and wherein the step of identifying a cyclic prefix for the transmissions is based on: the first information, if a delay spread calculated from the first information is longer than a delay spread calculated from the second information; and the second information, if a delay spread calculated from the second information is longer than a delay spread calculated from the first information.
A GH61 variant protein comprising an amino acid sequence that is at least 95% identical to SEQ ID NO:2, wherein the amino acid sequence of the variant protein has one or more amino acid substitutions with respect to SEQ ID NO:2, and wherein the one or more amino acid substitutions includes at least one substitution at one or more of amino acid positions 104 and 168, wherein the amino acid positions are numbered with reference to SEQ ID NO:2, and wherein the GH61 variant protein has increased thermoactivity and/or thermostability as compared to the GH61 wild-type protein of SEQ ID NO:2.