mhurhangee/ep-ind-claims huggingface dataset:
A method for utilizing interfaces of a network access device, - wherein the network access device comprises a subscriber interface with at least one subscriber port and a network interface, the method comprising: - checking whether configuration data can be obtained via the network interface; - when the configuration data cannot be obtained from the network interface, checking a predefined condition at the subscriber interface; - when the predefined condition is fulfilled, enabling the subscriber interface for configuration purposes. - wherein the network access device comprises a subscriber interface with at least one subscriber port and a network interface, - checking whether configuration data can be obtained via the network interface; - when the configuration data cannot be obtained from the network interface, checking a predefined condition at the subscriber interface; - when the predefined condition is fulfilled, enabling the subscriber interface for configuration purposes.
A method, comprising: generating a first clock signal using clock generation circuitry included in a synchronous digital system; selecting the first clock signal as a primary clock signal for the synchronous digital system; replacing the first clock signal with a second clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during a time when the second clock signal is acting as the primary clock signal by selecting the second clock signal in response to a condition requiring selection of a clock signal generated on-chip as the primary clock, wherein the condition comprises a signal indicating possible tampering with the synchronous digital system; and in response to determining the clock generation circuitry has stabilized, replacing the second clock signal with the first clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system. generating a first clock signal using clock generation circuitry included in a synchronous digital system; selecting the first clock signal as a primary clock signal for the synchronous digital system; replacing the first clock signal with a second clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system; reconfiguring the clock generation circuitry during a time when the second clock signal is acting as the primary clock signal by selecting the second clock signal in response to a condition requiring selection of a clock signal generated on-chip as the primary clock, wherein the condition comprises a signal indicating possible tampering with the synchronous digital system; and in response to determining the clock generation circuitry has stabilized, replacing the second clock signal with the first clock signal as the primary clock signal without causing clock-induced errors in the synchronous digital system.
A method comprising: performing, in a communication system where a primary cell is controlled by a first base station and a secondary cell is controlled by a second, different base station, flow control between the primary cell and the secondary cell for data for a radio link control layer, wherein performing flow control between the primary cell and the secondary cell comprises dynamically controlling a depth of queued radio link control data in the secondary cell for one or more user equipment based on one or more factors; communicating, according to the flow control, the data for the radio link control layer between the first and second base stations (290-1, 290-2) using a link between the first and second base stations, characterized in that the secondary cell estimates a time lag between an original packet data unit request sent over the link and a corresponding response message received over the link, the response message comprising a packet data unit, and wherein the measured time lag is an estimate of round trip time; wherein the secondary cell estimates an approximate length of time that queued data for the radio link control layer will last for a certain user equipment; and comparing, by the secondary cell, the determined approximate length of time to a threshold that is a certain margin greater than the estimated round trip time, and sending a request for additional data for the radio link control layer based on the determined approximate length of time being less than or equal to the threshold. performing, in a communication system where a primary cell is controlled by a first base station and a secondary cell is controlled by a second, different base station, flow control between the primary cell and the secondary cell for data for a radio link control layer, wherein performing flow control between the primary cell and the secondary cell comprises dynamically controlling a depth of queued radio link control data in the secondary cell for one or more user equipment based on one or more factors; communicating, according to the flow control, the data for the radio link control layer between the first and second base stations (290-1, 290-2) using a link between the first and second base stations, characterized in that the secondary cell estimates a time lag between an original packet data unit request sent over the link and a corresponding response message received over the link, the response message comprising a packet data unit, and wherein the measured time lag is an estimate of round trip time; wherein the secondary cell estimates an approximate length of time that queued data for the radio link control layer will last for a certain user equipment; and comparing, by the secondary cell, the determined approximate length of time to a threshold that is a certain margin greater than the estimated round trip time, and sending a request for additional data for the radio link control layer based on the determined approximate length of time being less than or equal to the threshold.
A monocrystalline metal organic framework comprising Cr 3+ ions and carboxylate ligands having a crystal size of greater than 0.05 mm; wherein the metal organic framework comprising Cr 3+ ions metal ions is octahedrally coordinated and wherein three Cr 3+ ions share a common oxygen to form a [Cr 3 (μ-O)] cluster, and the carboxylate ligands are selected from 2',3",5",6'-tetramethyl-[1,1':4',1":4",1"'-quaterphenyl]3,3"',5,5"'-tetracarboxylate ligands, 1,3,5-benzenetribenzoate ligands, and 4,4',4"-s-triazine-2,4,6-triyltribenzoate ligands
A method of processing a packet, comprising: receiving, by an Access Point AP, an Internet-of-Things data packet sent by an Internet-of-Things sensor, wherein a sensor identifier of the Internet-of-Things sensor is carried in the Internet-of-Things data packet; performing, by the AP, Control And Provisioning of Wireless Access Points Protocol Specification CAPWAP tunnel encapsulation for the Internet-of-Things data packet to carry an Internet-of-Things port number in the tunnel encapsulation; and sending, by the AP, the encapsulated Internet-of-Things data packet to an Access Controller AC such that the AC determine that the received packet is an Internet-of-Things data packet based on the Internet-of-Things port number and processes the Internet-of-Things data packet based on the sensor identifier. receiving, by an Access Point AP, an Internet-of-Things data packet sent by an Internet-of-Things sensor, wherein a sensor identifier of the Internet-of-Things sensor is carried in the Internet-of-Things data packet; performing, by the AP, Control And Provisioning of Wireless Access Points Protocol Specification CAPWAP tunnel encapsulation for the Internet-of-Things data packet to carry an Internet-of-Things port number in the tunnel encapsulation; and sending, by the AP, the encapsulated Internet-of-Things data packet to an Access Controller AC such that the AC determine that the received packet is an Internet-of-Things data packet based on the Internet-of-Things port number and processes the Internet-of-Things data packet based on the sensor identifier.
Process for remachining an existing hole by means of pulsed laser beams, which consists of a lower region and a diffuser at the surface of a coated substrate as component (1, 120, 130, 155), wherein the hole has, inside it, material of a layer present on the substrate, wherein the process serves for removing this material, characterized in that the process is carried out in a multiplicity of process steps with smaller and greater laser pulse lengths, in that the greater laser pulse lengths, which are greater than the smaller laser pulse lengths used in one of the last process steps, are used in one of the first process steps, in order to produce an inner region, the greatest part of the hole, and in that then, in one of the last process steps, an outer upper region of the hole is removed with the smaller laser pulse lengths, in order to arrive at the final dimensions of the hole, wherein the diffuser is machined with the shorter pulses and the longer pulses.
A breathing element comprising: a body comprising a first passage (124, 224) having a first external opening and a first internal end; a shaped baffle (130, 230) disposed within the body and coupled to the internal end of the first passage; a breathing piece coupled to the body and comprising a second passage (116, 216) having a second external opening and a second internal end that is fluidly coupled to the first internal end of the first passage through the shaped baffle; and an exhaust piece coupled to the body and comprising a third passage (120, 220) having a third external opening and a third internal end that is fluidly coupled to the second internal end of the second passage, characterized in that the shaped baffle (130, 230) is a partial-dome that protrudes into the second passage (116, 216), the shaped baffle configured to divert a portion of a first flow of gas entering the second external opening into the first passage (124, 224). a body comprising a first passage (124, 224) having a first external opening and a first internal end; a shaped baffle (130, 230) disposed within the body and coupled to the internal end of the first passage; a breathing piece coupled to the body and comprising a second passage (116, 216) having a second external opening and a second internal end that is fluidly coupled to the first internal end of the first passage through the shaped baffle; and an exhaust piece coupled to the body and comprising a third passage (120, 220) having a third external opening and a third internal end that is fluidly coupled to the second internal end of the second passage,
A method for the treatment of a suspension of solid particles in water, comprising the placing of said suspension in contact with at least one water-soluble (co)polymer made from 2-acrylamido-2-methylpropane sulfonic acid or of at least one of the salts thereof, the 2-acrylamido-2-methylpropane sulfonic acid being a hydrated crystalline form of 2-acrylamido-2-methylpropane sulfonic acid having a 2-theta powder X-ray diffraction diagram comprising peaks at 10.58°, 11.2°, 12.65°, 13.66°, 16.28°, 18.45°, 20°, 20.4°, 22.5°, 25.5°, 25.88°, 26.47°, 28.52°, 30.28°, 30.8°, 34.09°, 38.19°, 40.69°, 41.82°, 43.74°, 46.04° degrees.
A mobile terminal, comprising: a main body; first and second speakers (152a, 152b) positioned in different regions of the main body; and a controller, the mobile terminal being characterised in that the controller configured to detect a vibration command, to determine if audio contents are currently being reproduced on the mobile terminal when the vibration command is detected, and to apply a first signal having a frequency of a limited range to only one speaker among the first and second speakers (152a, 152b) so that vibration is generated by said only one speaker and to apply a second signal corresponding to the audio contents to the other speaker so that the audio contents are output by the other speaker, when the contents are currently being reproduced when the vibration command is detected. a main body; first and second speakers (152a, 152b) positioned in different regions of the main body; and a controller, the mobile terminal being characterised in that the controller configured to detect a vibration command, to determine if audio contents are currently being reproduced on the mobile terminal when the vibration command is detected, and to apply a first signal having a frequency of a limited range to only one speaker among the first and second speakers (152a, 152b) so that vibration is generated by said only one speaker and to apply a second signal corresponding to the audio contents to the other speaker so that the audio contents are output by the other speaker, when the contents are currently being reproduced when the vibration command is detected.
Transmitting and receiving device with a module with an N-way Doherty power amplifier, which has a main power amplifier with an amplifier core and at least two peak power amplifier (DP1, DP2) with an amplifier core, the amplifier cores each having power transistors with source -, gate- and drain- terminals, with a digital input signal divider connected to the input of the main power amplifier and the input of each peak power amplifier, which is referred to below as the control function and which is connected to the respective input of the main power amplifier and peak power amplifier (DM, DP1, DP2) controlling the phase and amplitude of each of its output signals, and a load matched output combiner connected to an output of the amplifier cores for the main power amplifier and one output of each peak power amplifier is provided, the control function being a non-linear function which is defined by measurements during an identification process in such a way that a superordinate transfer function consisting of the control function, the amplifier cores (DM, DP1, DP2) and the load-matched output combiner (C,LMC), is linear with respect to continuous waves, wherein two series-connected multiharmonic transformation lines each at the amplifier core output of the main power amplifier and at the amplifier core output of each peak power amplifier (DP1,DP2) are provided, and wherein an at the output of the load-matched output combiner connected circulator is provided, wherein each transformation line has a λ/4 length and wherein the characteristic impedance values of each of these transformation lines are individually adjusted in the design of their structure, whereby for the absorption of drain parasites in the transistors of the main power amplifier and the peak power amplifiers (DP1, DP2) absorption networks are provided, which are part of the multiharmonic transformation lines and these are part of the load-matched output combiner, wherein the upstream main power amplifier and each peak power amplifier (DP1, DP2) are protected from output overvoltage and overcurrent by the circulator by deriving the energy to a sump resistor connected to the circulator such that the circulator provides a 50 ohm terminating impedance for the load matched output combiner, and that a fanless operation of the module is made possible by a printed circuit board of the module being in thermally conductive connection with a heat sink and main power amplifier and peak power amplifier (DP1, DP2) are connected with the source -connection on the heat sink in such a way that the module has a high usable bandwidth with a pulse transmission power of approx. 2,000 watts.
One-step method for gas-phase butadiene production, which includes ethanol or ethanol and acetaldehyde mixture conversion in the presence of the catalyst characterized by the carrying out of the interaction in the presence of solid catalyst, which contains metal, chosen from the group of silver, gold or copper, and metal oxide, chosen from the group of magnesium, titanium, zirconium, tantalum or niobium oxide.
A monitoring device for blood glucose values, comprising a blood glucose measuring unit for measuring blood glucose measured values and an image acquisition unit (58, 64) for acquiring images, which is connected to the blood glucose measuring unit, and an allocation unit which is designed for assigning the images to associated blood glucose measured values.
A medical device for deployment into an alimentary canal, the device comprising: - a valve member; - wherein the valve member is movable between an open configuration, and a closed configuration; - wherein the valve member is configured to gradually move from the open configuration to the closed configuration over a predetermined period of time, - wherein the valve member is biased towards the closed configuration, and wherein the valve member is configured to be moved from the closed configuration to the open configuration upon passage of material through the device characterised in that - the valve member is of a viscoelastic material, and in that - the valve member comprises one or more valve leaflets extending substantially radially inwardly, the valve leaflet is movable between a contracted configuration and an expanded configuration, wherein the valve leaflet is in the contracted configuration when the valve member is in the open configuration and the valve leaflet is in the expanded configuration when the valve member is in the closed configuration. - a valve member; - wherein the valve member is movable between an open configuration, and a closed configuration; - wherein the valve member is configured to gradually move from the open configuration to the closed configuration over a predetermined period of time, - wherein the valve member is biased towards the closed configuration, and wherein the valve member is configured to be moved from the closed configuration to the open configuration upon passage of material through the device characterised in that - the valve member is of a viscoelastic material, and in that - the valve member comprises one or more valve leaflets extending substantially radially inwardly, the valve leaflet is movable between a contracted configuration and an expanded configuration, wherein the valve leaflet is in the contracted configuration when the valve member is in the open configuration and the valve leaflet is in the expanded configuration when the valve member is in the closed configuration.
An air compressor including a box and an electrically operated compressor unit installed in the box, wherein a motor drives a piston body to conduct reciprocating motion in a cylinder to produce compressed air, which is transferred into an air storage container provided with a plurality of outlets (52, 53, 55); the air compressor characterized in that: a tube is formed integrally with the air storage container and on the cylinder, wherein the tube defines therein an auxiliary air chamber communicating with an inner space of the cylinder but not communicating with an inner space of the air storage container; when the piston body reaches top dead center, a head of the piston body almost contacts a top wall of the cylinder, whereby part of the compressed air produced in the cylinder flows into the auxiliary air chamber, so that the piston body can conduct downward strokes more smoothly, and the compressed air can be prevented from exceeding a safety pressure set for an object to be inflated, without using a mechanical safety valve.
Flow rate processor for use in a Doppler ultrasonic flow meter for measuring, using an ultrasonic Doppler shift, the flow rate of a measurement fluid that flows inside of a tube, comprising: means for receiving Doppler shift components extracted from ultrasonic echoes; flow velocity distribution calculation means for calculating the flow velocity distribution of the measurement fluid along a measurement line based on said Doppler shift components; and flow rate calculation means for integrating, over a predetermined integration range, the flow velocity distribution to calculate the flow rate; characterized in that said flow rate calculation means is adapted to perform said integration using a corrected equation in which a quantization error of a spatial resolution of the velocity distribution is corrected wherein said flow velocity distribution calculation means is adapted to divide a measurement range of said measurement line into a number of channels and to calculate the flow velocity for each channel, the predetermined integration range being defined as a range from a starting position to an end position with at least one of the starting position and the end position being inside a respective channel, and said corrected equation is an equation that gives consideration only to the regions of the channels that extend from said starting position to said end position neglecting any region of the channel at the starting position that lies before that starting position and any region of the channel at the end position that lies after the end position. means for receiving Doppler shift components extracted from ultrasonic echoes; flow velocity distribution calculation means for calculating the flow velocity distribution of the measurement fluid along a measurement line based on said Doppler shift components; and flow rate calculation means for integrating, over a predetermined integration range, the flow velocity distribution to calculate the flow rate; characterized in that said flow rate calculation means is adapted to perform said integration using a corrected equation in which a quantization error of a spatial resolution of the velocity distribution is corrected wherein said flow velocity distribution calculation means is adapted to divide a measurement range of said measurement line into a number of channels and to calculate the flow velocity for each channel, the predetermined integration range being defined as a range from a starting position to an end position with at least one of the starting position and the end position being inside a respective channel, and said corrected equation is an equation that gives consideration only to the regions of the channels that extend from said starting position to said end position neglecting any region of the channel at the starting position that lies before that starting position and any region of the channel at the end position that lies after the end position.
Locking device arrangement comprising a locking device and a loading surface for locking a container, which container has standardised corner fittings having an opening in a wall, onto the loading surface, wherein the loading surface has a standardised receiving opening, the locking device is guided into the standardised receiving opening of the loading surface and a locking head of said device protrudes from said opening, wherein the locking head is designed to engage through the opening behind the wall of the corner fitting in order to lock the container onto the loading surface, comprising: - a grooved bushing arranged below the standardised receiving opening of the loading surface, in which grooved bushing the locking device is guided in a first position so as to be lowerable under the loading surface, and on which grooved bushing the locking device is supported so as to project above the loading surface in a second position, and - a retaining ring which holds the locking device underneath the loading surface in an assembly opening in the first position, wherein the locking device comprises a (semi-) automatic locking mechanism in a cylindrical housing, wherein the cylindrical housing is guided through the grooved bushing, the assembly opening and the retaining ring. - a grooved bushing arranged below the standardised receiving opening of the loading surface, in which grooved bushing the locking device is guided in a first position so as to be lowerable under the loading surface, and on which grooved bushing the locking device is supported so as to project above the loading surface in a second position, and - a retaining ring which holds the locking device underneath the loading surface in an assembly opening in the first position,