mhurhangee/ep-ind-claims huggingface dataset:
A process for processing VxLAN data units in an environment that includes an operating system configured for processing VxLAN data units, and a fast path environment dedicated to processing incoming packets arriving on an inbound interface, wherein the fast path environment is configured for receiving incoming VxLAN data units and is capable of processing such VxLAN data units, the process comprising: • obtaining VxLAN processing configuration parameters used by the operating system, wherein the obtained parameters comprise a VxLAN forward table; • configuring the fast path environment for processing received VxLAN data units based on the obtained parameters; and • selecting, at the fast path environment, at least one received VxLAN data unit for processing by the operating system outside of the fast path environment. • obtaining VxLAN processing configuration parameters used by the operating system, wherein the obtained parameters comprise a VxLAN forward table; • configuring the fast path environment for processing received VxLAN data units based on the obtained parameters; and • selecting, at the fast path environment, at least one received VxLAN data unit for processing by the operating system outside of the fast path environment.
A device for controlling a building aperture covering such as a door or a window, wherein said device comprises: - a housing arrangement (2, 2a, 2b) - a drive arrangement arranged in said housing arrangement, wherein the drive arrangement comprises a sprocket a reduction gear arrangement and a motor, - a strain measurement arrangement, and - a control arrangement configured to control said drive arrangement wherein said drive arrangement is configured to operate a push-pull chain, wherein one or more parts of said drive arrangement is connected to the housing arrangement by means of a connection system (12, 12a, 12b), wherein the strain measurement arrangement is configured to transmit strain measurement information to said control arrangement, wherein said control arrangement is configured to transmit control signals to control the motor based on the strain measurement information when a strain measurement exceed one or more thresholds, wherein said strain measurement arrangement comprises one or more sensors, such as strain gauges, characterised in that said one or more sensors are attached to one or more housing walls (2a, 2b, W2a, W2b, W2c, 20) of said housing arrangement in such a way that said strain measurement arrangement is configured to detect strain changes in said one or more housing walls (2a, 2b, W2a, W2b, W2c, 20) occurring due to reaction forces transferred from at least a part of said drive arrangement (10, 13) to the housing arrangement. - a housing arrangement (2, 2a, 2b) - a drive arrangement arranged in said housing arrangement, wherein the drive arrangement comprises a sprocket a reduction gear arrangement and a motor, - a strain measurement arrangement, and - a control arrangement configured to control said drive arrangement wherein said drive arrangement is configured to operate a push-pull chain, wherein one or more parts of said drive arrangement is connected to the housing arrangement by means of a connection system (12, 12a, 12b), wherein the strain measurement arrangement is configured to transmit strain measurement information to said control arrangement, wherein said control arrangement is configured to transmit control signals to control the motor based on the strain measurement information when a strain measurement exceed one or more thresholds, wherein said strain measurement arrangement comprises one or more sensors, such as strain gauges, characterised in that said one or more sensors are attached to one or more housing walls (2a, 2b, W2a, W2b, W2c, 20) of said housing arrangement in such a way that said strain measurement arrangement is configured to detect strain changes in said one or more housing walls (2a, 2b, W2a, W2b, W2c, 20) occurring due to reaction forces transferred from at least a part of said drive arrangement (10, 13) to the housing arrangement.
A door hinge for aluminum doors comprising a first hinge part (1 a) and a second hinge part, which in each case have at least one reel section (2a, 2b), and which are connected to one another on the reel sections (2a, 2b) so as to be capable of being rotated about a vertical axis, wherein the first hinge part (1 a) has through holes for fastening to an extruded profile, characterized in that the through holes are embodied as elongated holes extending in horizontal direction and that the first hinge part accommodates at least one pair of threaded pins, which are arranged at a horizontal distance to one another and which cause a fixation of the first hinge part (1 a) as a result of a tightening through a wedging in opposite direction, wherein the threaded pins are in each case arranged on the side of one of the through holes embodied as elongated hole, the first hinge part (1 a) is capable of being fastened to the extruded profile via a support, wherein the support has threaded holes for screws, which extend through the through holes of the first hinge part, and wherein the threaded pins extend through the support and in each case have a conical tip, so as to act directly on an assigned web of the extruded profile in response to a tightening.
An image sensor comprising an array of readout circuits in non-organic technology and photodiodes made of organic materials, wherein a first electrode of the photodiodes is common to a plurality of readout circuits, each photodiode comprising an active area located between the first electrode and a second electrode, said active area being separated from active area of the next photodiodes by spacers made of an electrically-insulating material.
A method for automated control of a combustion turbine fuel composition through automated modification of a ratio of fuel gas, the method comprises: providing a first fuel source; providing a second fuel source; supplying fuel to a combustion turbine in a blend of fuel from the first source and second source; specifying one or more first tuning priorities, wherein the one or more first tuning priorities are selected from the group comprising NOx levels, power level and combustion dynamics, heat rate, CO levels, heat recovery steam generator life, and turndown capability, and wherein the specifying comprises selecting or de-selecting one or more first tuning priorities or selecting a numerical value for the one or more first tuning priorities and wherein the specifying operates to change a first set of predetermined operational limits; specifying a second tuning priority, wherein the second tuning priority is fuel blend ratio, and wherein the specifying comprises selecting the second tuning priority and wherein the specifying of the second tuning priority operates to overlay a second set of predetermined operational limits within the first set of predetermined operational limits; sensing the operational parameters (120, 122) of the gas turbine; determining whether the operational parameters (120, 122) are within the first or second set of predetermined operational limits; adjusting the blend of the first fuel source and the second fuel source, based on whether the operational parameters (120, 122) are within the first or second set of predetermined operational limits. providing a first fuel source; providing a second fuel source; supplying fuel to a combustion turbine in a blend of fuel from the first source and second source; specifying one or more first tuning priorities, wherein the one or more first tuning priorities are selected from the group comprising NOx levels, power level and combustion dynamics, heat rate, CO levels, heat recovery steam generator life, and turndown capability, and wherein the specifying comprises selecting or de-selecting one or more first tuning priorities or selecting a numerical value for the one or more first tuning priorities and wherein the specifying operates to change a first set of predetermined operational limits; specifying a second tuning priority, wherein the second tuning priority is fuel blend ratio, and wherein the specifying comprises selecting the second tuning priority and wherein the specifying of the second tuning priority operates to overlay a second set of predetermined operational limits within the first set of predetermined operational limits; sensing the operational parameters (120, 122) of the gas turbine; determining whether the operational parameters (120, 122) are within the first or second set of predetermined operational limits; adjusting the blend of the first fuel source and the second fuel source, based on whether the operational parameters (120, 122) are within the first or second set of predetermined operational limits.
An added inertia resonant system for a power toothbrush to achieve low power, high amplitude motion of a drive shaft when placed under user loading, comprising: a drive shaft having a principal axis that defines a center of rotation; a drive system configured to impart a reciprocating motion to said drive shaft about the principal axis; and at least one inertial weight member coupled to the drive shaft, wherein the at least one inertial weight member comprises a single planar material extending in an x-y plane about a central z-axis, having a complex shape and being balanced in the x and y directions; characterized in that the complex shape includes an inner portion, a first outer portion extending from the inner portion in a first direction and having a first additional weight located between a first and second radial distance away from the principle axis, and a second outer portion extending from the inner portion in a second direction opposite the first direction, the second outer portion having a counter-balanced additional weight located between the first radial distance and a third radial distance, wherein the third radial distance is greater than the second radial distance; and wherein a length of an edge of the first outer portion at the second radial distance is greater than a length of an edge of the second outer portion at the third radial distance. a drive shaft having a principal axis that defines a center of rotation; a drive system configured to impart a reciprocating motion to said drive shaft about the principal axis; and at least one inertial weight member coupled to the drive shaft, wherein the at least one inertial weight member comprises a single planar material extending in an x-y plane about a central z-axis, having a complex shape and being balanced in the x and y directions; characterized in that the complex shape includes an inner portion, a first outer portion extending from the inner portion in a first direction and having a first additional weight located between a first and second radial distance away from the principle axis, and a second outer portion extending from the inner portion in a second direction opposite the first direction, the second outer portion having a counter-balanced additional weight located between the first radial distance and a third radial distance, wherein the third radial distance is greater than the second radial distance; and wherein a length of an edge of the first outer portion at the second radial distance is greater than a length of an edge of the second outer portion at the third radial distance.
Method to convert demolished concrete into a readily recyclable product which is capable to reliably replace virgin feedstock that is used for manufacturing concrete, wherein a plurality of information carriers is added to said product, wherein the plurality of information carriers are added immediately or shortly after demolishing the concrete, characterized in that the information carriers are regularly distributed and embedded into said product by securing that each separate fraction of the product will hold a dedicated information carrier, wherein each such dedicated information carrier is arranged to refer to information that is characteristic for the fraction of the product in which the dedicated information carrier is contained.
Method for controlling a three-phase electrical machine from an inverter, where said inverter receives a direct voltage at its input, and delivers at its output three phase voltages enabling the electrical machine to be controlled, where the inverter comprises three branches each comprising an upper switch (I1, I3, I5) and a lower switch (I2, I4, I6), where each switch (I1, I2, I3, I4, I5, I6) can switch to an open or closed position, where the position of an upper switch of a branch is always the reverse of the position of the lower switch of this same branch, where the simultaneous positions of the switches of the branches of the inverter are represented by a control vector (V0, V1, V2, V3, V4, V5, V6, V7) comprising three binary elements, i.e. eight vectors representing the various combinations of the possible positions of the switches, where the vector for which all the upper switches (I1, I3, I5) of the branches are in an open position is a first "zero-sequence" vector, and where the vector for which all the upper switches (I1, I3, I5) of the branches are in a closed position is a second "zero-sequence" vector, and the other vectors are called "active vectors", where said active vectors (V1, V2, V3, V4, V5 and V6) delimit six control sectors (S1, S2, S3, S4, S5, S6) as a complex representation, in which at the centre of each sector (S1, S2, S3, S4, S5, S6) there is an active vector (V1, V2, V3, V4, V5, V6), where the setpoint control of the electrical machine is represented by a control vector (V*) moving from sector to sector with the rotation of the electrical machine's rotor, where the method is characterised by the fact that, with each sector (S1, S2, S3, S4, S5, S6) subdivided into three subsectors, comprising a central subsector centred on the active vector, a first lateral subsector associated with the first zero-sequence vector, and a second lateral subsector, opposite the first lateral subsector relative to the central subsector, associated with the second zero-sequence vector, it comprises a step of control of the voltage at the terminals of each phase (U, V, W) of the electrical machine, measured relative to neutral, with the value defined by the control vector (V0, V1, V2, V3, V4, V5, V6, V7) associated with the subsector in which the control vector (V*) is located.
A wireless sound equipment comprising: a body having an upper portion and a lower portion, the body being configured to be worn around a neck of a user with the upper portion directed upwardly toward ears of the user and the lower portion directed downwardly toward shoulders of the user; an internal space located in the body and forming an enclosure; a partition wall partitioning off the internal space into a first accommodating portion and a second accommodating portion, wherein the first accommodating portion and the second accommodating portion are arranged side by side in a longitudinal direction of the body; a first hole located in the upper portion of the body corresponding to the first accommodating portion; a first speaker located in the first accommodating portion and arranged towards the first hole so as to output sound via the first hole, wherein the first speaker is a full range speaker; a second hole located in the lower portion of the body corresponding to the second accommodating portion; and a second speaker located in the second accommodating portion and arranged toward the second hole so as to output sound via the second hole, and wherein the second speaker is a vibration speaker configured to output sound in a low frequency band, a through-hole provided in the partition, the through-hole permitting the first accommodating portion and the second accommodating portion to communicate with each other, wherein the through-hole is arranged in the partition wall along a line passing through a center of the second speaker. a body having an upper portion and a lower portion, the body being configured to be worn around a neck of a user with the upper portion directed upwardly toward ears of the user and the lower portion directed downwardly toward shoulders of the user; an internal space located in the body and forming an enclosure; a partition wall partitioning off the internal space into a first accommodating portion and a second accommodating portion, wherein the first accommodating portion and the second accommodating portion are arranged side by side in a longitudinal direction of the body; a first hole located in the upper portion of the body corresponding to the first accommodating portion; a first speaker located in the first accommodating portion and arranged towards the first hole so as to output sound via the first hole, wherein the first speaker is a full range speaker; a second hole located in the lower portion of the body corresponding to the second accommodating portion; and a second speaker located in the second accommodating portion and arranged toward the second hole so as to output sound via the second hole, and wherein the second speaker is a vibration speaker configured to output sound in a low frequency band, a through-hole provided in the partition, the through-hole permitting the first accommodating portion and the second accommodating portion to communicate with each other, wherein the through-hole is arranged in the partition wall along a line passing through a center of the second speaker.
Use of an organic acid selected from the group consisting of butyric, valeric, caproic, enanthic, caprylic, pelargonic and capric acid or its salt for inactivation of coagulation factors FIXa, and/or FXIa in protein containing solutions obtained from blood, blood plasma, plasma fractions or by recombinant means by contacting the protein containing solution with the organic acid or its salt while being stirred.
A vehicle exterior part, comprising: a body; a heater wire (11, 12) disposed in the body; a socket formed integrally with the body and protruding from the body; and a connector pin, part of the connector pin being embedded into the socket, wherein the heater wire (11, 12) extends into the socket and is joined to the connector pin, the socket is configured to accept a power supply plug, the vehicle exterior part is configured such that the heater wire (11, 12) is energized via the power supply plug and the connector pin, and the socket includes a thinned portion. a body; a heater wire (11, 12) disposed in the body; a socket formed integrally with the body and protruding from the body; and a connector pin, part of the connector pin being embedded into the socket, wherein the heater wire (11, 12) extends into the socket and is joined to the connector pin, the socket is configured to accept a power supply plug, the vehicle exterior part is configured such that the heater wire (11, 12) is energized via the power supply plug and the connector pin, and the socket includes a thinned portion.
Domestic appliance for emulsifying or mixing a liquid food preparation comprising: - a container comprising, near the bottom of the container, a rotary tool for emulsifying or mixing the food preparation, and which is provided with a dispensing tap comprising a lever for operating an opening valve slaved in the closed position, - a frame supporting the container and comprising an electric motor associated with means for driving the rotary tool in rotation, characterised in that the container comprises a fixed tab facing the operating lever, said operating lever being movable between a position far from the fixed tab in which the opening valve is closed and a position near to the fixed tab in which the opening valve is open and in that the transition from the far position to the near position of the operating lever is carried out by the user squeezing together the fixed tab and the operating lever. - a container comprising, near the bottom of the container, a rotary tool for emulsifying or mixing the food preparation, and which is provided with a dispensing tap comprising a lever for operating an opening valve slaved in the closed position, - a frame supporting the container and comprising an electric motor associated with means for driving the rotary tool in rotation, characterised in that the container comprises a fixed tab facing the operating lever, said operating lever being movable between a position far from the fixed tab in which the opening valve is closed and a position near to the fixed tab in which the opening valve is open and in that the transition from the far position to the near position of the operating lever is carried out by the user squeezing together the fixed tab and the operating lever.
Method for driving an electric machine in motor start-up mode by means of power electronics, in particular for use in a motor vehicle, wherein the power electronics have a plurality of driveable power switches, which are connected to the electric machine for the purpose of supplying the electric machine with electric power in multi-phase form, wherein the power electronics are driven in such a way that the stationary or starting electric machine outputs a stationary or starting torque (t), wherein the power electronics for outputting the stationary or starting torque (t) are driven in such a way that the switching position of at least two of the power switches is changed, so that the power switches are loaded uniformly, characterized in that the driving is carried out in a field-oriented manner, wherein space vectors for outputting the starting torque (t) are changed incrementally, and wherein the space vector is a current vector which, to output the starting torque (t), is rotated incrementally along a line (t q) of constant torque.