mhurhangee/ep-ind-claims huggingface dataset:
A method of processing packets comprising: receiving a packet at a gateway; determining, at a network processing unit of the gateway, if the packet matches a limited set of criteria and, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager (352, 516) in the gateway, wherein the method then further comprises: receiving the packet at the demux manager and comparing the packet to a set of criteria of packets associated with a process instance and, if there is a match, forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; receiving a new packet at a process instance that is assigned from the demux manager and creating a cache entry with information from the new packet; and sending from the process instance a limited set of criteria to set up a flow in the network processing unit to forward packets that match the limited set of criteria. receiving a packet at a gateway; determining, at a network processing unit of the gateway, if the packet matches a limited set of criteria and, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager (352, 516) in the gateway, if there is a match, forwarding the packet to a corresponding process instance in the gateway, otherwise forwarding the packet to a demux manager (352, 516) in the gateway, wherein the method then further comprises: receiving the packet at the demux manager and comparing the packet to a set of criteria of packets associated with a process instance and, if there is a match, forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; if there is a match, forwarding the packet to that process instance, otherwise allocating the packet to a new process instance to handle a new packet flow; receiving a new packet at a process instance that is assigned from the demux manager and creating a cache entry with information from the new packet; and sending from the process instance a limited set of criteria to set up a flow in the network processing unit to forward packets that match the limited set of criteria.
A method, performed in a wireless terminal of determining the cell identity of a cell in a heterogeneous wireless network, comprising a high power cell and a low power cell sharing the same carrier frequencies, said method comprising: correlating a first signal originating from an unknown cell in a first time period with a first set of possible synchronization signals to obtain a first set of correlations; correlating a second signal originating from the unknown cell in a second time period with a second set of possible synchronization signals to obtain a second set of correlations; selecting a candidate set of cell identities for the unknown cell based on the first and second sets of correlations; correlating a third signal originating from the unknown cell in a third time period with a set of reference signals corresponding to the cell identities in the candidate set to obtain a third set of correlations; and selecting a cell identity associated with a reference signal in said third set having the greatest correlation with the third signal, and wherein the first set of possible synchronization signals comprises a set of possible secondary synchronization signals transmitted in the first time period, and wherein the second set of possible synchronization signals comprises a set of possible secondary synchronization signals transmitted in the second time period. correlating a first signal originating from an unknown cell in a first time period with a first set of possible synchronization signals to obtain a first set of correlations; correlating a second signal originating from the unknown cell in a second time period with a second set of possible synchronization signals to obtain a second set of correlations; selecting a candidate set of cell identities for the unknown cell based on the first and second sets of correlations; correlating a third signal originating from the unknown cell in a third time period with a set of reference signals corresponding to the cell identities in the candidate set to obtain a third set of correlations; and selecting a cell identity associated with a reference signal in said third set having the greatest correlation with the third signal, and wherein the first set of possible synchronization signals comprises a set of possible secondary synchronization signals transmitted in the first time period, and wherein the second set of possible synchronization signals comprises a set of possible secondary synchronization signals transmitted in the second time period.
Control logic such that an air-extraction (AZ, AWE) and/or air-treatment device which is configured as a separate household appliance can be controlled, in particular switched on and/or switched off, as a function of at least one state parameter of a household dishwasher, wherein the household dishwasher can be coupled via at least one direct or indirect communication connection (DKV, IKV) to the air-extraction (AZ, AWE) and/or air-treatment device such that a switched-on operating phase of the air-extraction (AZ, AWE) and/or air-treatment device correlates, considered chronologically, in particular partially or entirely coincides, considered chronologically, with an outflow operating phase of the household dishwasher, in which process air flows out of the dishwasher cavity of the household dishwasher, in particular into a living space, preferably a kitchen space, in which the household dishwasher and the air-extraction (AZ, AWE) and/or air-treatment device are provided together, and wherein the control logic is configured such that via the at least one direct or indirect communication connection (DKV, IKV) at least one information signal (IS, IS2*), in particular a control signal (SS2*), can be transmitted to a communication unit of the air-extraction (AZ, AWE) and/or air-treatment device, which causes the air-extraction (AZ, AWE) and/or air-treatment device to be in its switched-on operating state at least during a time period, in particular a starting time period, of an outflow operating phase of the household dishwasher, during which process air flows out of the dishwasher cavity of the household dishwasher, in particular into the living space, preferably the kitchen space, or to have already changed into its switched-on operating state for a predeterminable period of time before the starting time (tAPS) of the outflow operating phase of the household dishwasher, and to maintain this operating state at least during a starting time period, in particular during the entire time period (TAP = tAPE - tAPS), of the outflow operating phase of the household dishwasher.
Device for influencing the movement of a plurality of movable furniture parts 3 which are movably driven by means of a drive unit via a control unit for controlling the movement of the movable furniture parts 3 relative to a fixed furniture part 2, characterized in that the control unit is configured in such a manner as to keep the relative speed between the two movable furniture parts below a predefined value during the simultaneous driven movement of two movable furniture parts, said value being smaller than a maximum relative speed occurring between the two movable furniture parts due to the driven movement thereof.
A microwave treatment device comprising: a heating chamber configured to accommodate a heating target; a microwave generator operable to generate a microwave having an arbitrary frequency in a predetermined frequency band; an amplifier operable to amplify the microwave and output, as incident microwave power, the microwave amplified; a feeder configured to supply the incident microwave power to the heating chamber; a detector operable to detect the incident microwave power and reflected microwave power that returns from the heating chamber to the feeder; a controller operable to control the microwave generator and the amplifier; and a storage operable to store the incident microwave power and the reflected microwave power together with the frequency of the microwave and time elapsed since a start of heating, wherein the controller is operable to cause the microwave generator to execute a frequency sweep over the predetermined frequency band and is operable to control the microwave generator and the amplifier based on the incident microwave power and the reflected microwave power detected during the frequency sweep, characterized in that the controller is operable to cause the microwave generator to alternately generate, at a predetermined time ratio, the microwave having a frequency at which a reflected wave ratio is relatively high and the microwave having a frequency at which the reflected wave ratio is relatively low, the reflected wave ratio being a ratio of the reflected microwave power to the incident microwave power. a heating chamber configured to accommodate a heating target; a microwave generator operable to generate a microwave having an arbitrary frequency in a predetermined frequency band; an amplifier operable to amplify the microwave and output, as incident microwave power, the microwave amplified; a feeder configured to supply the incident microwave power to the heating chamber; a detector operable to detect the incident microwave power and reflected microwave power that returns from the heating chamber to the feeder; a controller operable to control the microwave generator and the amplifier; and a storage operable to store the incident microwave power and the reflected microwave power together with the frequency of the microwave and time elapsed since a start of heating, wherein the controller is operable to cause the microwave generator to execute a frequency sweep over the predetermined frequency band and is operable to control the microwave generator and the amplifier based on the incident microwave power and the reflected microwave power detected during the frequency sweep, characterized in that the controller is operable to cause the microwave generator to alternately generate, at a predetermined time ratio, the microwave having a frequency at which a reflected wave ratio is relatively high and the microwave having a frequency at which the reflected wave ratio is relatively low, the reflected wave ratio being a ratio of the reflected microwave power to the incident microwave power.
A method for determining phosphate in a water sample, comprising the steps of: a) providing a water sample, b) adding an acid in such a way that the concentration of the acid in the water sample is at least 0.5% by weight, c) first photometric measurement of the water sample solution, d) adding a colouring component to the photometric water sample solution, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, e) second photometric measurement, and f) calculation of the phosphate concentration from the difference between the first and second photometric measurements. a) providing a water sample, b) adding an acid in such a way that the concentration of the acid in the water sample is at least 0.5% by weight, c) first photometric measurement of the water sample solution, d) adding a colouring component to the photometric water sample solution, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, wherein the colouring component contains 0.1 to 3 wt.% of an acid, and wherein the increase in the acid concentration in the water sample due to the addition of the acid is at least three times higher than due to the addition of the colouring component, e) second photometric measurement, and f) calculation of the phosphate concentration from the difference between the first and second photometric measurements.
A method for separating methane from nitrogen, using a feed containing a mixture of at least methane and nitrogen, comprising contacting the feed with an adsorbent comprising a porous support wherein the porous support comprises exchangeable cations and at least a portion of the exchangeable cations are organic cations, selected from a substituted ammonium cation, a substituted phosphonium cation or an organic nitrogen-containing cation, wherein the porous support has pore diameters large enough to adsorb methane, and wherein the porous support is a zeolite or an aluminosilicate.
A method in a user equipment for setting up an activation time of a high speed downlink shared channel cell change of the user equipment from a serving cell to a target cell in a wireless communications network, the method characterized in comprising the following steps: - receiving a timing offset from a network controller through an active set update procedure; - calculating a high speed downlink shared channel cell change activation time based on the timing offset, the activation time indicating when the user equipment can move to the target cell; - transmitting the calculated activation time to the network controller; - receiving an approval of the downlink shared channel high speed cell change from the network controller; and - moving from the serving cell to the target cell at the activation time if the approval has been received. - receiving a timing offset from a network controller through an active set update procedure; - calculating a high speed downlink shared channel cell change activation time based on the timing offset, the activation time indicating when the user equipment can move to the target cell; - transmitting the calculated activation time to the network controller; - receiving an approval of the downlink shared channel high speed cell change from the network controller; and - moving from the serving cell to the target cell at the activation time if the approval has been received.
Section for a primary wall framework, including a web, having at its base a bottom flange forming a support, said flange including at least one sub-flange forming an angle with the web, said sub-flange having an end comprising a lip forming a means for guiding in translation for a spacer in use, the web and the lip extending from the same first face of the sub-flange, the first face of the sub-flange or the web comprising at least one tongue (206, 206', 206") forming an abutment in translation along a longitudinal direction (d) of the second, each tongue being formed from a strip (210, 210') on standby attached on one side by a root (207, 207', 207") to the first face of the sub-flange or to the web and having a free end on the other, the tongue being furthermore raised in relation to the first face of the sub-flange or to the web to allow a spacer to be inserted, the section being characterised in that at least one locking louvre (208, 208') is formed in the web of said section, said locking louvre (208, 208') limiting a movement along an orthogonal direction to the sub-flange of the spacer assembled with the section in use.
An assembly of a support plate and an exit window foil for use in an electron beam generating device, said support plate being designed to reduce wrinkles in said foil, which wrinkles may arise due to surplus foil arising in the assembly process, said foil being bonded to the support plate along a closed bonding line bounding an area in which the support plate is provided with apertures and foil support portions and in which area the foil is adapted to serve as a portion of a wall of a vacuum tight housing of the electron beam generating device, wherein the support plate, within said area, is provided with a pattern of apertures and foil support portions alternately, which pattern, when vacuum is created in the housing, is adapted to form a topographical profile of the foil substantially absorbing any surplus foil, wherein the absorption is made in such a way that a substantially dominant bending of the foil occurs in said apertures, and wherein the dominant bending is made around an axis directed substantially perpendicular to the bonding line in a plane of the support plate, and said assembly being characterized in that the area bounded by said bonding line is divided in at least two sections (38, 40) each comprising at least one aperture, and that in each respective section (38, 40) the dominant bending is created in the same direction in neighboring apertures, and that the area bounded by the bonding line is substantially rectangular, and that the dominant bending in a first central section is made around a first axis directed substantially perpendicular to a first side of the rectangle and to a second side opposite the first side, and that the dominant bending in second side sections is made around a second axis directed substantially perpendicular to a third side and respective fourth side of the rectangle, the third and fourth sides (3, 4) of the rectangle being substantially perpendicular to the first and second sides (1, 2).
A fastener, comprising: a first clip member, comprising a first base portion and two first arm portions that extend upwardly from two sides of the first base portion; a second clip member locked with the first clip member, comprising a second base portion and two second arm portions that extend upwardly from two sides of the second base portion; and at least one hook portion extending from a distal end of one of the first and second arm portions (210, 214), wherein the first and second clip members (202, 204) are arranged horizontally along two different directions, and the second base portion is positioned on the first base portion, characterized in that each first arm portion is interlocked with at least one second arm portion by at least a pair of tab and aperture formed on adjacent sides of the first and second arm portions (210, 214). a first clip member, comprising a first base portion and two first arm portions that extend upwardly from two sides of the first base portion; a second clip member locked with the first clip member, comprising a second base portion and two second arm portions that extend upwardly from two sides of the second base portion; and at least one hook portion extending from a distal end of one of the first and second arm portions (210, 214), wherein the first and second clip members (202, 204) are arranged horizontally along two different directions, and the second base portion is positioned on the first base portion, characterized in that
Method for operating a medium voltage circuit breaker or recloser, comprising at least one electric pole, each comprising a movable contact and a fixed contact, adapted to be in closed or open position after the switching operations of said switching device, and an electromagnetic actuator, wherein the travel curve of the movable contact is monitored wherein the travel curve is derived by the evaluation of the magnitude of the back electromagnetic force related to the speed of the motion and integrating the speed over discrete time steps, wherein the actuator is driven with a controlled current, in such, that a controller and a voltage source with puls width modulation is used, detecting a deviation of the actual travel curve compared to an original curve.
A bump stop comprising: - a metal upper washer defining an axis of revolution and an axial orientation with a top and a bottom, with the upper washer having a top guide track and an upper face opposite the top guide track, - a metal lower washer placed under the upper washer and defining a lower guide track located opposite the upper guide track, - one or more guide body/bodies travelling on the upper guide track and the lower guide track for guiding the lower washer in rotation relative to the upper washer about the axis of revolution, - a cover comprising a radially extending bearing portion which forms a lower bearing surface, which bears against the upper face of the upper washer, with the cover further comprising a bump stop containment skirt, radially located inside the upper washer and the lower washer and axially extending downwards from the bearing portion, with said containment skirt comprising an annular armature insert; characterized in that the bearing portion is totally made of plastic material and the containment skirt comprises plastic material overmolding the annular armature insert, with the annular armature insert being totally axially located under the lower washer. - a metal upper washer defining an axis of revolution and an axial orientation with a top and a bottom, with the upper washer having a top guide track and an upper face opposite the top guide track, - a metal lower washer placed under the upper washer and defining a lower guide track located opposite the upper guide track, - one or more guide body/bodies travelling on the upper guide track and the lower guide track for guiding the lower washer in rotation relative to the upper washer about the axis of revolution, - a cover comprising a radially extending bearing portion which forms a lower bearing surface, which bears against the upper face of the upper washer, with the cover further comprising a bump stop containment skirt, radially located inside the upper washer and the lower washer and axially extending downwards from the bearing portion, with said containment skirt comprising an annular armature insert;
A computer-implemented method for controlling an unmanned vehicle, comprising: provisioning a first operating system using a first processor of an integrated circuit; configuring the first operating system to execute a first vehicle control process using the first processor; provisioning at least one virtual machine using a second processor of the integrated circuit, the at least one virtual machine is isolated from the first operating system; and configuring the at least one virtual machine to execute a second vehicle control process. provisioning a first operating system using a first processor of an integrated circuit; configuring the first operating system to execute a first vehicle control process using the first processor; provisioning at least one virtual machine using a second processor of the integrated circuit, the at least one virtual machine is isolated from the first operating system; and configuring the at least one virtual machine to execute a second vehicle control process.
An energy-optimised acceleration control for a motor vehicle having an internal combustion engine and/or an electric engine, a transmission unit and an acceleration element, to be actuated by the driver, for accelerating the motor vehicle, wherein during the course of the restoring force, on actuating the acceleration element, a fixed discontinuity with an increased restoring force is provided, which fixed discontinuity can be sensed by the driver as a pressure point with an increased resistance, and wherein the acceleration control is configured to operate the motor vehicle in two different operating modes, characterised in that upon actuating the acceleration element to accelerate the vehicle, which action results in reaching the discontinuity, the acceleration control changes into an energy-optimised acceleration mode on reaching the fixed discontinuity.