mhurhangee/ep-ind-claims huggingface dataset:
A system for providing communication event routing and transfer capability in a multi-site communication-center environment (600, 700) comprising: - a shared application server running a presence protocol application adhering to a presence protocol; - a first computer processor at a first communication-center site, the first computer processor providing a point of transfer on a network; and - a second computer processor at a second communication-center site enabling a destination of transfer, characterized in that the first computer processor at the first communication-center site is configured to transmit a first routing request to the second computer processor at the second communication-enter site in response to an incoming event at the first communication-center site, wherein the first routing request adheres to a proprietary protocol, and wherein the first routing request includes a routing protocol and event data for the incoming event; further characterized in that the presence protocol application is shared by the first and second communication-center sites (600, 700) cooperating in the transfer and routing of events, wherein the presence protocol application performs an event-handling process, the event handling process including transmitting a second routing request to the second computer processor in response to a command from the first computer processor, wherein the second routing request adheres to the presence protocol, and wherein the second routing request is for requesting presence information of an agent (610a-n, 710a-n) and for requesting transfer of the incoming event to the second communication-center site; further characterized in that the second computer processor determines presence information of the agent (610a-n, 710a-n) in the second communication-center site prior to the transfer of the incoming event to the second communication-center site, wherein the second computer processor returns routing information to the first computer processor in response to confirming availability of the agent (610a-n, 710a-n); and further characterized in that the second computer processor transmits a first response in response to the first routing request and a second response in response to the second routing request, wherein the first and second responses are for permitting or failing to permit the transfer of the incoming event to the second communication-center site. - a shared application server running a presence protocol application adhering to a presence protocol; - a first computer processor at a first communication-center site, the first computer processor providing a point of transfer on a network; and - a second computer processor at a second communication-center site enabling a destination of transfer,
A method for recording information in a mobile terminal, characterized in that, the method comprises:: detecting an acceleration of the mobile terminal; determining whether the acceleration reaches a preset acceleration threshold; and initiating a recording function of the mobile terminal to record the information if the acceleration reaches the preset acceleration threshold; characterised by determining whether the mobile terminal is in a call state; wherein, the step of initiating the recording function of the mobile terminal to record the information comprises: if the mobile terminal is in the call state, initiating an audio recording function of the mobile terminal to record audio information of both sides of the call; if the mobile terminal is not in the call state, initiating an audio input device of the mobile terminal, and initiating the audio recording function of the mobile terminal to record the audio information received by the audio input device. detecting an acceleration of the mobile terminal; determining whether the acceleration reaches a preset acceleration threshold; and initiating a recording function of the mobile terminal to record the information if the acceleration reaches the preset acceleration threshold; characterised by determining whether the mobile terminal is in a call state; wherein, the step of initiating the recording function of the mobile terminal to record the information comprises: if the mobile terminal is in the call state, initiating an audio recording function of the mobile terminal to record audio information of both sides of the call; if the mobile terminal is not in the call state, initiating an audio input device of the mobile terminal, and initiating the audio recording function of the mobile terminal to record the audio information received by the audio input device. if the mobile terminal is in the call state, initiating an audio recording function of the mobile terminal to record audio information of both sides of the call; if the mobile terminal is not in the call state, initiating an audio input device of the mobile terminal, and initiating the audio recording function of the mobile terminal to record the audio information received by the audio input device.
Method for manufacturing a water-tight, water vapour-permeable segment having a three-dimensional shape, for a shoe shaft, an item of clothing or a rucksack or for forming the same, the segment being free of connection points at its surface, and wherein the method comprises the following steps: a. presentation of a stack of at least one first and a second two-dimensional sheet structures arranged one on top of the other, wherein at least two sheet structures contained in the stack adjacent to one another and lying directly on top of one another are not connected to one another and wherein the first sheet structure forms a water-tight, water vapour-permeable functional layer, b. presentation of a mould body having said three-dimensional shape, c. thermoforming of the stack of at least a first and a second sheet structure by means of the mould body and simultaneous lamination of the sheet structures contained in the stack, resulting in an adhesion of at least 1.0 N, measured according to DIN 53530:1981-02 with a test piece width of 25 mm, between at least one first and a second two-dimensional sheet structure arranged one on top of the other and not initially connected to one another, with heating of the stack to a process temperature, wherein the process temperature is to be set in such a way that plastic deformation of the stack and lamination for planar connection of the two-dimensional sheet structure contained in the stack is obtained, whereby the segment is formed. a. presentation of a stack of at least one first and a second two-dimensional sheet structures arranged one on top of the other, wherein at least two sheet structures contained in the stack adjacent to one another and lying directly on top of one another are not connected to one another and wherein the first sheet structure forms a water-tight, water vapour-permeable functional layer, b. presentation of a mould body having said three-dimensional shape, c. thermoforming of the stack of at least a first and a second sheet structure by means of the mould body and simultaneous lamination of the sheet structures contained in the stack, resulting in an adhesion of at least 1.0 N, measured according to DIN 53530:1981-02 with a test piece width of 25 mm, between at least one first and a second two-dimensional sheet structure arranged one on top of the other and not initially connected to one another, with heating of the stack to a process temperature, wherein the process temperature is to be set in such a way that plastic deformation of the stack and lamination for planar connection of the two-dimensional sheet structure contained in the stack is obtained, whereby the segment is formed.
A pipe switch for conveying, distributing and filling bulk goods, having a housing, a closure element and a setting system which includes a control and a drive, the housing including an inner wall in which a feed opening and at least two discharge openings (30, 32) are provided, the closure element being arranged within the inner wall of the housing between the feed opening and the discharge openings (30, 32), and the closure element further comprising a slide, the closure element being rotatably mounted in relation to the discharge openings (30, 32) for modifying its position, and the setting system being connected to the closure element so as to transmit movement and being set up to modify the position of the closure element, wherein the setting system is set up to control the closure element according to a plurality of different intermediate positions in relation to the discharge openings (30, 32), the at least two discharge openings (30, 32) being covered by the closure element only partially in relation to the feed opening in at least one of the intermediate positions, the setting system, together with the closure element, providing that in each intermediate position the sum of the cross-sectional areas of the first and of the second discharge opening not covered by the closure element is substantially constant, the closure element including a slide, the course of which follows the inner wall with a radial offset or the course of which follows the inner wall directly, and which is mounted so as to be rotatable about the middle of the interior of the inner wall, the inner wall and the slide extending along a section of a cylinder or a ball, characterized in that the spacing between side walls (30b, 32a), facing each other, of the first and of the second discharge opening in the circumferential direction of the inner wall is greater than the width of the first discharge opening in the circumferential direction of the inner wall and greater than the width of the second discharge opening in the circumferential direction of the inner wall, the setting system having a fine metering state and a coarse metering state, the setting system being set up to assume the coarse metering state when neither of the two discharge openings (30, 32) is covered only partially by the closure element, and the setting system being set up to assume the fine metering state when at least one of the two discharge openings (30, 32) is covered only partially by the closure element.
A method performed at an apparatus, the method comprising: determining an inactivity timer threshold for each first flow of a radio connection based on at least one second flow mapped to the respective first flow, the respective first flow carrying the at least one second flow, wherein each first flow corresponds to a Radio Link Protocol, RLP, flow and each second flow of the at least one second flow corresponds to an Internet Protocol, IP, flow; determining whether each first flow is inactive based on the inactivity timer threshold for the first flow; and closing the radio connection when all of the at least one first flow are determined to be inactive. determining an inactivity timer threshold for each first flow of a radio connection based on at least one second flow mapped to the respective first flow, the respective first flow carrying the at least one second flow, wherein each first flow corresponds to a Radio Link Protocol, RLP, flow and each second flow of the at least one second flow corresponds to an Internet Protocol, IP, flow; determining whether each first flow is inactive based on the inactivity timer threshold for the first flow; and closing the radio connection when all of the at least one first flow are determined to be inactive.
A method for modeling a subsurface region, comprising: obtaining a trained machine learning network, wherein obtaining the trained machine learning network comprises training the machine learning network with a training dataset to predict rock type probabilities from petrophysical parameters; obtaining an initial petrophysical parameter estimate; applying the trained machine learning network to the initial petrophysical parameter estimate to predict a geologic prior model; obtaining geophysical data for the subsurface region acquired during a geophysical survey of the subsurface region; obtaining geophysical parameters for the subsurface region; and performing a petrophysical inversion with the geologic prior model, geophysical data, and geophysical parameters to generate a rock type probability model and an updated petrophysical parameter estimate; wherein each one of (i) applying the trained machine learning network and (ii) performing the petrophysical inversion is carried out using a geophysical data analysis system, and wherein the machine learning network is trained to predict rock type probabilities at sub-seismic scales for inputs comprising petrophysical parameters obtained from seismic-scale data. obtaining a trained machine learning network, wherein obtaining the trained machine learning network comprises training the machine learning network with a training dataset to predict rock type probabilities from petrophysical parameters; obtaining an initial petrophysical parameter estimate; applying the trained machine learning network to the initial petrophysical parameter estimate to predict a geologic prior model; obtaining geophysical data for the subsurface region acquired during a geophysical survey of the subsurface region; obtaining geophysical parameters for the subsurface region; and performing a petrophysical inversion with the geologic prior model, geophysical data, and geophysical parameters to generate a rock type probability model and an updated petrophysical parameter estimate; wherein each one of (i) applying the trained machine learning network and (ii) performing the petrophysical inversion is carried out using a geophysical data analysis system, and wherein the machine learning network is trained to predict rock type probabilities at sub-seismic scales for inputs comprising petrophysical parameters obtained from seismic-scale data. wherein each one of (i) applying the trained machine learning network and (ii) performing the petrophysical inversion is carried out using a geophysical data analysis system, and wherein the machine learning network is trained to predict rock type probabilities at sub-seismic scales for inputs comprising petrophysical parameters obtained from seismic-scale data.
A nucleic acid sequence comprising a nucleotide sequence selected from (a) SEQ ID NO: 1 or a fragment thereof, wherein said fragment comprises at least 600 consecutive nucleotides of SEQ ID NO: 1, said fragment further comprising a T/G box motif having the nucleotide sequence from nucleotide position 298 to 303 of SEQ ID NO: 1 and a MYB binding motif having the nucleotide sequence from nucleotide position 846 to 851 of SEQ ID NO: 1 and wherein said fragment when introduced into cotton has seed-specific promoter activity with high expression levels in fibers from day 5 post anthesis until day 30 post anthesis; (b) a nucleotide sequence with at least 95% sequence identity to the nucleic acid sequence of (a), said fragment further comprising a T/G box motif having the nucleotide sequence from nucleotide position 298 to 303 of SEQ ID NO: 1 and a MYB binding motif having the nucleotide sequence from nucleotide position 846 to 851 of SEQ ID NO: 1 and having seed-specific promoter activity with high expression level in fibers from day 5 post anthesis until day 30 post anthesis when introduced in cotton; (c) a nucleotide sequence complementary to the nucleotide sequence of any one of (a) or (b). (a) SEQ ID NO: 1 or a fragment thereof, wherein said fragment comprises at least 600 consecutive nucleotides of SEQ ID NO: 1, said fragment further comprising a T/G box motif having the nucleotide sequence from nucleotide position 298 to 303 of SEQ ID NO: 1 and a MYB binding motif having the nucleotide sequence from nucleotide position 846 to 851 of SEQ ID NO: 1 and wherein said fragment when introduced into cotton has seed-specific promoter activity with high expression levels in fibers from day 5 post anthesis until day 30 post anthesis; (b) a nucleotide sequence with at least 95% sequence identity to the nucleic acid sequence of (a), said fragment further comprising a T/G box motif having the nucleotide sequence from nucleotide position 298 to 303 of SEQ ID NO: 1 and a MYB binding motif having the nucleotide sequence from nucleotide position 846 to 851 of SEQ ID NO: 1 and having seed-specific promoter activity with high expression level in fibers from day 5 post anthesis until day 30 post anthesis when introduced in cotton; (c) a nucleotide sequence complementary to the nucleotide sequence of any one of (a) or (b).
A speed control system for a vehicle, comprising: means for automatically causing the vehicle to operate in accordance with a target speed value, means for receiving information relating to movement of at least a portion of the vehicle body, said information comprising: a measured value of vehicle body pitch angular acceleration, a measured value of vehicle body roll angular acceleration, and a measured value of vehicle body heave acceleration, means for applying a gain to each of said measured value of vehicle body pitch angular acceleration, measured value of vehicle body roll angular acceleration, and measured value of vehicle body heave acceleration, and determining a signal indicative of comfort level therefrom; and means for adjusting automatically the value of the target speed value in dependence on said signal indicative of comfort level. means for automatically causing the vehicle to operate in accordance with a target speed value, means for receiving information relating to movement of at least a portion of the vehicle body, said information comprising: a measured value of vehicle body pitch angular acceleration, a measured value of vehicle body roll angular acceleration, and a measured value of vehicle body heave acceleration, means for applying a gain to each of said measured value of vehicle body pitch angular acceleration, measured value of vehicle body roll angular acceleration, and measured value of vehicle body heave acceleration, and determining a signal indicative of comfort level therefrom; and means for adjusting automatically the value of the target speed value in dependence on said signal indicative of comfort level.
Cargo bicycle for transporting a load by means of a rider, wherein the cargo bicycle comprises a front wheel and a rear wheel, and a load bed, which is arranged between the front wheel and the rear wheel, wherein the cargo bicycle comprises a rider seat, wherein the cargo bicycle can be driven by the rider by means of a crank, wherein the axis of the crank is situated in the same longitudinal position as the axis of the rear wheel or even further to the rear, that is, further away from the load bed, in the longitudinal direction of the cargo bicycle characterized in that the cargo bicycle has, in addition to the front and rear wheels (1, 2), a load wheel, preferably an omnidirectional wheel, which can optionally be moved from a non-use position into a use position wherein the cargo bicycle has a control unit which is configured to drive autonomously without a rider on the cargo bicycle by means of electrical drive and by means of the load wheel in the use position, in particular in a following mode and/or in an autonomous driving mode.
An expandable intraluminal stent, comprising: a tubular member comprising a clear through-lumen, and having proximal and distal ends and a longitudinal length defined therebetween, a circumference, and a diameter which is adjustable between at least a first collapsed diameter and at least a second expanded diameter, said tubular member comprising: at least one module (110; 410; 510) comprising a series of sliding and locking radial elements (120, 120', 120"; 220; 320', 320"; 420', 420"; 620), wherein each radial element ( 120, 120', 120"; 220; 320', 320"; 420', 420"; 620) defines a portion of the circumference of the tubular member and wherein no radial element (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) overlaps with itself in either the first collapsed diameter or the second expanded diameter; and at least one articulating mechanism (134; 234; 434) which permits one-way sliding of the radial elements (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) from the first collapsed diameter to the second expanded diameter, but inhibits radial recoil from the second expanded diameter, characterized in that said tubular member comprises a frame element (160; 260; 360; 460; 660) that surrounds at least one radial element (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) in each module. a tubular member comprising a clear through-lumen, and having proximal and distal ends and a longitudinal length defined therebetween, a circumference, and a diameter which is adjustable between at least a first collapsed diameter and at least a second expanded diameter, said tubular member comprising: at least one module (110; 410; 510) comprising a series of sliding and locking radial elements (120, 120', 120"; 220; 320', 320"; 420', 420"; 620), wherein each radial element ( 120, 120', 120"; 220; 320', 320"; 420', 420"; 620) defines a portion of the circumference of the tubular member and wherein no radial element (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) overlaps with itself in either the first collapsed diameter or the second expanded diameter; and at least one articulating mechanism (134; 234; 434) which permits one-way sliding of the radial elements (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) from the first collapsed diameter to the second expanded diameter, but inhibits radial recoil from the second expanded diameter, characterized in that said tubular member comprises a frame element (160; 260; 360; 460; 660) that surrounds at least one radial element (120, 120', 120"; 220; 320', 320"; 420', 420"; 620) in each module.
A method for stabilizing the frequency of a MEMS-based (Micro Electro Mechanical Systems) reference oscillator, characterised in that the MEMS-based reference oscillator comprising at least a first MEMS oscillator and a second MEMS oscillator, and the method comprises: - generating, with at least the first MEMS oscillator, a low phase noise output signal; - generating, with at least the second MEMS oscillator, a correction signal for adjusting the output signal of at least the first MEMS oscillator; and - synthesizing a stabilized frequency output signal on the basis of the output signal of at least the first MEMS oscillator and the correction signal. - generating, with at least the first MEMS oscillator, a low phase noise output signal; - generating, with at least the second MEMS oscillator, a correction signal for adjusting the output signal of at least the first MEMS oscillator; and - synthesizing a stabilized frequency output signal on the basis of the output signal of at least the first MEMS oscillator and the correction signal.
Use of caffeic acid oligomeric forms in the preparation of a sustained energy release food, feed, nutraceutical and/or beverage composition simultaneously providing maximal tissue protection by neutralization of a broad spectra of free radicals associated with energy consuming metabolic reactions, wherein the dried leaves of Celastrus hindsii Benth are used to directly prepare a water extract as a tea or the basis of a cold beverage.