mhurhangee/ep-ind-claims huggingface dataset:
Device for fastening a roller shutter to a winding drum, a belt strap, spring strap or link strap being provided which is fastened to the winding drum and an attachment profile being provided at the end of the belt strap, spring strap or link strap, characterised in that the belt strap, spring strap or link strap extends one turn around the winding drum and that a catch-hook system consisting of a catch hook connected permanently to the winding drum and a catch pin attached to the end of the belt strap, spring strap or link strap is provided so that, when the roller shutter is being wound up, the belt strap, spring strap or link strap opens automatically on account of the tensile load, and the catch pin is positioned such that it comes to lie in the opening of the catch hook after exactly one turn of the belt strap, spring strap or link strap around the winding drum.
A method for performing auditory scene analysis comprising the steps of: providing a plurality of nonlinear oscillators (405 1, 405 2, 405 3... 405 k), each respective oscillator producing an oscillation signal having an amplitude and phase distinct from the others in response to a common input; detecting an input (406 1) at an at least first oscillator of the plurality of nonlinear oscillators; detecting an input (406 2) at an at least a second oscillator of the plurality of the nonlinear oscillators; comparing the oscillation of the at least first oscillator (405 1) to the oscillation of the at least second oscillator (405 2) at a point in time; determining whether there is multi-frequency phase coherency between the oscillation of the at least first oscillator and the oscillation of the at least second oscillator; and changing at least one of the amplitude and phase of a signal transmitted between the at least first oscillator and the at least second oscillator as a function of the multi-frequency phase coherency between the oscillation of the at least second oscillator and the at least first oscillator to segregate sound components according to source and show coherent patterns of sound components, the signal being represented as c ̇ ij = − δ ij c ij + k ij z i 1 − ε z i ⋅ z ̅ j 1 − ε z ̅ j where c ij is the magnitude and phase of the signal transmitted between any two nonlinear oscillators, δ and k are parameters representing the speed of change of the signal, z is the complex valued state variables of the two connected oscillators.
A material spreading system comprising: a spreader (14, 214, 414) including a frame attachable to a loading machine, an inlet for receiving a material, a discharge mechanism (160,260,460) configured to selectively discharge the material onto the ground, and a lift arm (170a, 170b, 370a, 370b); and a tote (16, 216, 416) including a container (40, 240) having a plurality of walls (44,46,48,50,52,54) enclosing an internal volume for storing the material, an opening formed in one of the plurality of walls and communicating with the internal volume, a first lift arm engaging surface (62a,62b,66a,66b,69a,69b,74a,74b) configured to engage the lift arm (170a, 170b, 370a, 370b) and permit the lift arm to manipulate the tote (16, 216, 416), and a closure member (78, 380) at least partially covering the opening, characterized in that the closure member (78, 380) is configured to selectively permit transfer of the material from the container (40, 240) to the inlet of the spreader (14, 214, 414) in response to the material exerting a force on the closure member (78, 380). a spreader (14, 214, 414) including a frame attachable to a loading machine, an inlet for receiving a material, a discharge mechanism (160,260,460) configured to selectively discharge the material onto the ground, and a lift arm (170a, 170b, 370a, 370b); and a frame attachable to a loading machine, an inlet for receiving a material, a discharge mechanism (160,260,460) configured to selectively discharge the material onto the ground, and a lift arm (170a, 170b, 370a, 370b); and a tote (16, 216, 416) including a container (40, 240) having a plurality of walls (44,46,48,50,52,54) enclosing an internal volume for storing the material, an opening formed in one of the plurality of walls and communicating with the internal volume, a first lift arm engaging surface (62a,62b,66a,66b,69a,69b,74a,74b) configured to engage the lift arm (170a, 170b, 370a, 370b) and permit the lift arm to manipulate the tote (16, 216, 416), and a closure member (78, 380) at least partially covering the opening, characterized in that the closure member (78, 380) is configured to selectively permit transfer of the material from the container (40, 240) to the inlet of the spreader (14, 214, 414) in response to the material exerting a force on the closure member (78, 380). a container (40, 240) having a plurality of walls (44,46,48,50,52,54) enclosing an internal volume for storing the material, an opening formed in one of the plurality of walls and communicating with the internal volume, a first lift arm engaging surface (62a,62b,66a,66b,69a,69b,74a,74b) configured to engage the lift arm (170a, 170b, 370a, 370b) and permit the lift arm to manipulate the tote (16, 216, 416), and a closure member (78, 380) at least partially covering the opening, characterized in that the closure member (78, 380) is configured to selectively permit transfer of the material from the container (40, 240) to the inlet of the spreader (14, 214, 414) in response to the material exerting a force on the closure member (78, 380).
Method for diagnosing the failure of a partial exhaust gas recirculation system of a motor vehicle internal combustion engine of the diesel type, the internal combustion engine being equipped with a means for determining the air intake flow rate, characterized in that it comprises the following steps: determining whether the air intake setpoint has been stable for a stored time interval, if this is the case, calculating an integral diagnostic criterion, the value of the integral criterion being determined as being equal to the interval with respect to the time elapsed of the maximum value between zero and the air intake flow rate setpoint, minus the measurement of the air intake flow rate, minus a neutral zone value, and then determining whether the value of the integral diagnostic criterion is above a threshold, and if this is the case, sending a detection signal indicating the detection of a fault in the partial exhaust gas recirculation system. the internal combustion engine being equipped with a means for determining the air intake flow rate, characterized in that it comprises the following steps: determining whether the air intake setpoint has been stable for a stored time interval, if this is the case, calculating an integral diagnostic criterion, the value of the integral criterion being determined as being equal to the interval with respect to the time elapsed of the maximum value between zero and the air intake flow rate setpoint, minus the measurement of the air intake flow rate, minus a neutral zone value, and then determining whether the value of the integral diagnostic criterion is above a threshold, and if this is the case, sending a detection signal indicating the detection of a fault in the partial exhaust gas recirculation system. determining whether the air intake setpoint has been stable for a stored time interval, if this is the case, calculating an integral diagnostic criterion, the value of the integral criterion being determined as being equal to the interval with respect to the time elapsed of the maximum value between zero and the air intake flow rate setpoint, minus the measurement of the air intake flow rate, minus a neutral zone value, and then determining whether the value of the integral diagnostic criterion is above a threshold, and if this is the case, sending a detection signal indicating the detection of a fault in the partial exhaust gas recirculation system.
A user terminal configured for providing a user interface command on said user terminal, said user interface command being activable for allowing a user to demand a quality-of-service change in relation to a service, and characterized by being further configured for, upon activation of the user interface command, transmitting, towards a network node, a quality-of-service change request on a per-media basis for a service, wherein said service involves a plurality of medias and the quality-of-service change request is specific to a particular media of the service.
A method for measuring a charge of an ion in an electrostatic linear ion trap including a charge detection cylinder positioned between two ion mirrors (M1,M2), in which during an ion trapping event the ion repeatedly oscillates back and forth between the two ion mirrors each time passing through and inducing a corresponding charge on the charge detection cylinder and in which an ion measurement signal including magnitudes of the induced charges and timing of the induced charges during the trapping event are recorded in an ion measurement file, the method comprising: (a) establishing a time window of the ion measurement signal at the beginning of the ion measurement file, (b) generating a simulated ion measurement signal for the time window of the ion measurement signal using input parameters including estimates of signal frequency, charge magnitude, signal phase and duty cycle, (c) iteratively processing a variance between the time window of the ion measurement signal and the simulated ion measurement signal by adjusting values of the input parameters until the variance reaches convergence, (d) recording a charge magnitude value resulting from (c), (e) advancing the time window of the ion measurement signal by an incremental time amount, (f) repeating (b) - (d) until the time window reaches the end of the ion measurement file, and (g) determining the charge of the ion based on the charge magnitude values of each of the time windows. (a) establishing a time window of the ion measurement signal at the beginning of the ion measurement file, (b) generating a simulated ion measurement signal for the time window of the ion measurement signal using input parameters including estimates of signal frequency, charge magnitude, signal phase and duty cycle, (c) iteratively processing a variance between the time window of the ion measurement signal and the simulated ion measurement signal by adjusting values of the input parameters until the variance reaches convergence, (d) recording a charge magnitude value resulting from (c), (e) advancing the time window of the ion measurement signal by an incremental time amount, (f) repeating (b) - (d) until the time window reaches the end of the ion measurement file, and (g) determining the charge of the ion based on the charge magnitude values of each of the time windows.
A refrigerator comprising: a cabinet in which an upper storage space and a lower storage space are defined; a door part inserted and withdrawn to open and close the lower storage space; and a drawer part connected to the door part so as to be inserted into and withdrawn from the lower storage space, the refrigerator comprises: a support member which is provided in the drawer part and on which a food or container is seated; and an elevation device mounted on an inner surface of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn, characterized in that the inside of the drawer part is divided into a front space and a rear space, and the support member is accommodated in the front space, when the drawer door is withdrawn, the front space is withdrawn to the outside of the storage space, and the rear space is disposed inside the storage space within the cabinet. a support member which is provided in the drawer part and on which a food or container is seated; and an elevation device mounted on an inner surface of the drawer part and coupled to each of both side ends of the support member to vertically elevate the support member in a state in which a drawer door is withdrawn, characterized in that the inside of the drawer part is divided into a front space and a rear space, and the support member is accommodated in the front space, when the drawer door is withdrawn, the front space is withdrawn to the outside of the storage space, and the rear space is disposed inside the storage space within the cabinet.
A switchgear enclosure comprising: an exterior housing; a plurality of compartments within the exterior housing, the plurality of compartments including at least a first switching device compartment, a bus compartment, and a first cable compartment; a plurality of interior partitions arranged to subdivide the exterior housing into the plurality of compartments, the interior partitions including at least a first partition between the first switching device compartment and the first cable compartment, and a second partition between the bus compartment and the first cable compartment; and, an exhaust system including: a vent path structure arranged within the exterior housing to at least partially surround the bus compartment and the first cable compartment; a channel (74, 76) formed between the vent path structure and the exterior housing; characterized in a first vent device in the first partition, the first vent device configured to fluidically connect the first switching device compartment to the channel (74, 76) via the vent path structure. an exterior housing; a plurality of compartments within the exterior housing, the plurality of compartments including at least a first switching device compartment, a bus compartment, and a first cable compartment; a plurality of interior partitions arranged to subdivide the exterior housing into the plurality of compartments, the interior partitions including at least a first partition between the first switching device compartment and the first cable compartment, and a second partition between the bus compartment and the first cable compartment; and, an exhaust system including: a vent path structure arranged within the exterior housing to at least partially surround the bus compartment and the first cable compartment; a channel (74, 76) formed between the vent path structure and the exterior housing; characterized in a first vent device in the first partition, the first vent device configured to fluidically connect the first switching device compartment to the channel (74, 76) via the vent path structure. a vent path structure arranged within the exterior housing to at least partially surround the bus compartment and the first cable compartment; a channel (74, 76) formed between the vent path structure and the exterior housing; characterized in a first vent device in the first partition, the first vent device configured to fluidically connect the first switching device compartment to the channel (74, 76) via the vent path structure.
A martensitic steel having a microstructure of a martensite structure, said steel consisting of a chemical composition, by mass%, of: Si: 1.0 to 3.5%, Mn: 4.5 to 5.5%, Al: 0.001 to 0.080%, Nb: 0.045% or less, and C: 0.1875 to 0.2775%, with the balance being Fe and inevitable impurities of: P: 0.030% or less, S: 0.020% or less, and N: 0.010% or less, wherein the martensitic steel has a fine microstructure having a main phase of lath martensite of 95% or more by volume, the martensitic steel has an average block grain size of 5.0 μm or less in a cross section in a direction vertical to the rolling direction, the martensitic steel has a total elongation of 13 to 15%, and wherein the martensitic steel has a tensile strength of 1800 to 2160 MPa, the tensile strength satisfying the following regression equation: tensile strength MPa = 4000 × C mass % + 1050 Si: 1.0 to 3.5%, Mn: 4.5 to 5.5%, Al: 0.001 to 0.080%, Nb: 0.045% or less, and C: 0.1875 to 0.2775%, P: 0.030% or less, S: 0.020% or less, and N: 0.010% or less,
A terminal comprising: a first buffer status report table; a second buffer status report table which extends the maximum buffer data amount reportable by the terminal; a table selector configured to select the first buffer status report table or the second buffer status report table; and a transmitter configured to transmit a control signal including first information and second information, wherein the first information indicates a long buffer status report or a short buffer status report, and wherein the second information is a buffer status information, characterised in that, when the first information indicates the long buffer status report, the buffer status information comprises information on a logical channel group mapped to a first octet and an index selected from either the first buffer status report table or the second buffer status report table mapped to a second octet, wherein the information on a logical channel group, or the information on a logical channel group in combination with the first information, indicates the first buffer status report table or the second buffer status report table selected by the table selector for the logical channel group. a first buffer status report table; a second buffer status report table which extends the maximum buffer data amount reportable by the terminal; a table selector configured to select the first buffer status report table or the second buffer status report table; and a transmitter configured to transmit a control signal including first information and second information, wherein the first information indicates a long buffer status report or a short buffer status report, and wherein the second information is a buffer status information, characterised in that, when the first information indicates the long buffer status report, the buffer status information comprises information on a logical channel group mapped to a first octet and an index selected from either the first buffer status report table or the second buffer status report table mapped to a second octet, wherein the information on a logical channel group, or the information on a logical channel group in combination with the first information, indicates the first buffer status report table or the second buffer status report table selected by the table selector for the logical channel group.
A wireless communication station, STA, comprising physical layer, PHY, circuitry and processing elements to: receive a transmission on a channel that includes at least a primary channel and secondary channel; determine, in response to receipt of the transmission, whether a network allocation vector, NAV, timer has expired; receive an indication of the primary channel and a bandwidth of the primary channel, and, if the NAV timer has expired and the STA determines that the STA has just exited a power save mode such that the STA has not been awake a sufficient time to receive a start of packet, SOP, determine whether a data portion of a physical layer protocol data unit, PPDU, compatible with a standard of an Institute for Electrical and Electronics Engineers 802.11ah family of standards, has been detected in the primary channel or in the secondary channel; and defer transmissions on the primary channel in response to detection of the data portion in the primary channel and defer transmissions on the secondary channel in response to detection of the data portion in the secondary channel, wherein the STA is capable to operate within a 2 MHz basic service set, BSS, and the primary channel includes the lower 1 MHz of the 2 MHz BSS operating channel bandwidth. receive a transmission on a channel that includes at least a primary channel and secondary channel; determine, in response to receipt of the transmission, whether a network allocation vector, NAV, timer has expired; receive an indication of the primary channel and a bandwidth of the primary channel, and, if the NAV timer has expired and the STA determines that the STA has just exited a power save mode such that the STA has not been awake a sufficient time to receive a start of packet, SOP, determine whether a data portion of a physical layer protocol data unit, PPDU, compatible with a standard of an Institute for Electrical and Electronics Engineers 802.11ah family of standards, has been detected in the primary channel or in the secondary channel; and defer transmissions on the primary channel in response to detection of the data portion in the primary channel and defer transmissions on the secondary channel in response to detection of the data portion in the secondary channel, wherein the STA is capable to operate within a 2 MHz basic service set, BSS, and the primary channel includes the lower 1 MHz of the 2 MHz BSS operating channel bandwidth.
A method for synchronizing different network access modules in a mobile communication device, the device comprising a first network access module having a first radio access technology, or RAT, interface and being clocked at a first clock frequency and a second network access module having a second RAT interface and being clocked at a second clock frequency, wherein the first clock frequency is different from the second clock frequency, the method comprising the following steps: - generating a clock signal having the first clock frequency, - tuning (606, 708) the clock signal having the first clock frequency to become synchronized with a network clock signal received via one of the first and second RAT interface; - outputting the clock signal for use as a first reference clock signal in the first network access module, - converting the clock signal to the second clock frequency, and - outputting the converted clock signal for use as a second reference clock signal in the second network access module. - generating a clock signal having the first clock frequency, - tuning (606, 708) the clock signal having the first clock frequency to become synchronized with a network clock signal received via one of the first and second RAT interface; - outputting the clock signal for use as a first reference clock signal in the first network access module, - converting the clock signal to the second clock frequency, and - outputting the converted clock signal for use as a second reference clock signal in the second network access module.
Process for the production of alkoxylates by reacting at least one monomeric educt in the presence of an alkaline catalyst and at least one starting material in at least one first reactor and thereafter passing the product of the first reactor to at least one second reactor for further reaction, wherein the first reactor is provided with a first external circulation loop comprising a circulation pump and a heat exchange device and comprises a smaller volume than the second reactor, which is provided with a second external circulation loop comprising a circulation pump and a heat exchange device, and is connected to the first reactor, and wherein in the first reactor a pre-polymer is produced which thereafter is passed to the second reactor, wherein the desired polymer is produced, characterized in that the second reactor comprises a volume, which is at least four times the volume of the first reactor, wherein at least the second reactor is a jet loop reactor comprising a jet device to inject reaction medium and the at least one monomeric educt into the second reactor, wherein a growth ratio defined as a final batch volume of the second reactor divided by a minimum initial volume of starting material in the first reactor is at least 80: 1.