mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a flow rate indicator relating to the output flow rate of one or more activated pumps of a pumping station, the pumping station including a well to be at least partially emptied by the pumps and an inlet through which inflow can be supplied into the well, the method including the steps of: - determining, using a computational device, an operating condition relating to the activated pumps; - temporarily deactivating the pumps, in response to the determination of the operating condition; - determining an inflow rate indicator relating to the inflow using the computational device; and - determining, using the computational device, the flow rate indicator using the determined inflow rate indicator; characterized in that the operating condition is (i) the flow rate indicator being less than a predetermined flow rate threshold; or (ii) the pumps have been activated for a period more than a predetermined time threshold. - determining, using a computational device, an operating condition relating to the activated pumps; - temporarily deactivating the pumps, in response to the determination of the operating condition; - determining an inflow rate indicator relating to the inflow using the computational device; and - determining, using the computational device, the flow rate indicator using the determined inflow rate indicator; characterized in that the operating condition is (i) the flow rate indicator being less than a predetermined flow rate threshold; or (ii) the pumps have been activated for a period more than a predetermined time threshold. (i) the flow rate indicator being less than a predetermined flow rate threshold; or (ii) the pumps have been activated for a period more than a predetermined time threshold.
Operating device for setting seat parameters of a seat, in particular a vehicle seat, wherein the operating device comprises at least one multifunction operating element having at least one selection element by means of which at least two operating levels are selectable, wherein the multifunction operating element is moveable in at least five switching directions, wherein each switching direction is assignable to a particular function associated with the selected operating level and changing a seat parameter, characterized in that the selection element is a touch screen for displaying and selecting at least two control panels, wherein one control panel represents an operating level, wherein one control panel is selectable by means of at least one first user input, wherein the control panels (31, 31a, 31b, 31c, 31d) are arranged in a fixed sequence, wherein the touch screen indicates a single control panel in each case, wherein the user input (32, 33) is a swiping or a tapping movement.
A heavy duty pneumatic tire comprising a tread portion provided with a plurality of circumferentially and continuously extending zigzag shaped main grooves, a plurality of land portions separated by the main grooves, and a plurality of lateral grooves to form a plurality of block elements on each land portions, each land portion comprising a number of pitches, wherein each pitch consists of one block element and one lateral groove adjacent to the concerned block element, and the main grooves comprising at least one crown main groove arranged nearby a tire equator, at least one shoulder main groove arranged nearby a tread edge (Te), and at least one middle main groove arranged between the crown main groove and the shoulder main groove, wherein the middle main groove has a zigzag amplitude larger than those (CW1, SW1) of the crown main groove and the shoulder main groove, wherein the land portions comprise an axially inner middle land portion arranged between the crown main groove and the middle main groove, and an axially outer middle land portion arranged between the middle main groove and the shoulder main groove, wherein the axially inner middle land portion is provided with a plurality of axially inner lateral grooves to form a plurality of axially inner block elements, wherein the axially outer middle land portion is provided with a plurality of axially outer lateral grooves to form a plurality of axially outer block elements, and wherein the middle main groove is further provided with a first connecting portion and a second connecting portion, characterized in that said number of pitches is in a range from 40 to 50, each block element has a circumferential length in a range of from 85% to 95% of a circumferential length of the pitch, when the tread portion is worn as a first state, the first connecting portion comes into contact with the road to connect the axially inner block element with the axially outer block element so that a plurality of connected blocks are formed, and when the tread portion is worn as a second state that comes from later than the first state, the second connecting portion comes into contact with the road to connect the connected blocks so that a rib is formed.
A method for inline packet response generation implemented by a network device functioning as a switch in a software defined networking, SDN, network, the method to configure a flow control pipeline to enable the inline response generation without use of a control channel and SDN controller after configuration, the method comprising: connecting with the SDN controller; receiving an OpenFlow packet out data packet from the SDN controller with a template message and a buffer identifier, ID, for the template message; identifying the received OpenFlow packet out data packet without any action fields as containing the template message; installing the template message into a buffer with corresponding buffer ID; receiving a first data packet from the SDN controller identifying matching criteria and the buffer ID; and updating a flow control pipeline to match on the matching criteria and to point to the buffer with the buffer ID. connecting with the SDN controller; receiving an OpenFlow packet out data packet from the SDN controller with a template message and a buffer identifier, ID, for the template message; identifying the received OpenFlow packet out data packet without any action fields as containing the template message; installing the template message into a buffer with corresponding buffer ID; receiving a first data packet from the SDN controller identifying matching criteria and the buffer ID; and updating a flow control pipeline to match on the matching criteria and to point to the buffer with the buffer ID.
A propulsion system (1; 20) for a vehicle or toy vehicle comprising rotary drive means for driving the vehicle along ground, the rotary drive means operating in a plane and having a peripheral ground-engagement part, further comprising a rotor (3; 21) comprising one or more rotor blades (6, 7) rotatable about a rotor axis for producing thrust, wherein the rotary drive means and the rotor are positioned relative to each other so that during rotation of the rotor, the rotor blades pass through the plane of the rotary drive means, inside the peripheral ground-engagement part.
A transparent substrate with a multilayer anti-glare coating, the transparent substrate comprising: a transparent substrate; a first coating layer formed on the transparent substrate and being formed of a first dielectric layer having a refractive index of n1; a second coating layer formed on the first coating layer and being formed of a metal oxide layer having a refractive index of n2; a third coating layer formed on the second coating layer and being formed of a second dielectric layer having a refractive index of n3; and a fourth coating layer formed on the third coating layer and being formed of a third dielectric layer having a refractive index of n4, characterized in that n1 = n3 > n2 > n4; wherein n1 and n3 are within the range 1.9 to 2.5, n2 is within the range 1.8 to 2.5, and n4 is within the range 1.3 to 1.6; and wherein the second coating layer has an extinction coefficient within the range 0.01 to 0.30. a transparent substrate; a first coating layer formed on the transparent substrate and being formed of a first dielectric layer having a refractive index of n1; a second coating layer formed on the first coating layer and being formed of a metal oxide layer having a refractive index of n2; a third coating layer formed on the second coating layer and being formed of a second dielectric layer having a refractive index of n3; and a fourth coating layer formed on the third coating layer and being formed of a third dielectric layer having a refractive index of n4, characterized in that n1 = n3 > n2 > n4; wherein n1 and n3 are within the range 1.9 to 2.5, n2 is within the range 1.8 to 2.5, and n4 is within the range 1.3 to 1.6; and wherein the second coating layer has an extinction coefficient within the range 0.01 to 0.30.
An apparatus comprising: at least one processor; and a memory storing instructions, that when executed by the processor, cause the at least one processor: to execute at least one function; and to set, based on an operation, one of the at least one function temporarily unable to be executed; characterized in that the instructions further cause the processor to keep a state where said one function temporarily unable to be executed without releasing the state, when, irrespective of whether a power supply of the apparatus is on or off, an elapsed time, that is a time elapsed after setting said one function temporarily unable to be executed, exceeds a threshold; and to release the state in a case where it is detected that (i) the elapsed time exceeds the threshold, and (ii) the power supply of the apparatus is switched from off to on. at least one processor; and a memory storing instructions, that when executed by the processor, cause the at least one processor: to execute at least one function; and to set, based on an operation, one of the at least one function temporarily unable to be executed; to execute at least one function; and to set, based on an operation, one of the at least one function temporarily unable to be executed; characterized in that the instructions further cause the processor to keep a state where said one function temporarily unable to be executed without releasing the state, when, irrespective of whether a power supply of the apparatus is on or off, an elapsed time, that is a time elapsed after setting said one function temporarily unable to be executed, exceeds a threshold; and to release the state in a case where it is detected that (i) the elapsed time exceeds the threshold, and (ii) the power supply of the apparatus is switched from off to on.
Crop lifter which by means of a pretensioning device can be laid against a mowing finger of a mowing attachment of a mobile harvester, wherein the crop lifter is formed from a ramp section, a support running underneath the ramp section and a fastening element connected to the support, wherein the support is fixed with its rear end to the harvester when the crop lifter is assembled and extends forwards from the mowing attachment of the mobile harvester predominantly in the direction of travel and wherein the fastening element has two legs (2.3, 2.4) and a bridge (2.2) connecting these at the upper end, wherein the mowing finger of the harvester is introduced between the legs (2.3, 2.4) when the crop lifter is assembled, characterised in that an eccentric tensioner is mounted rotatably with respect to a pivot bolt between the two legs (2.3, 2.4) of the fastening element, the eccentric tensioner has a supporting surface (1.1), the eccentric tensioner has a locking surface (1.2) which is arranged on the same lever arm (1.4) of the eccentric tensioner opposite the supporting surface (1.1), the fastening element has a support surface (2.5) which is located in the pivoting range of the eccentric tensioner in such a way that further pivoting of the eccentric tensioner is prevented by the fact that the locking surface (1.2) rests against the support surface (2.5), wherein with the crop lifter mounted, the supporting surface (1.1) rests against the mowing finger of the harvester while the support is pretensioned, and the locking surface (1.2) rests against the support surface (2.5).
A bearing arrangement for a door, in particular for refrigerators or freezers, having a bearing axis for the rotatable mounting of the door, a closing device, by means of which the door is movable by the force of a force accumulator over a specific pivot range in the closing direction, a damper for damping a pivot movement of the door over at least one pivot range, wherein the closing device and the damper are aligned in an essentially perpendicular plane in relation to the axis of rotation of the bearing axis, wherein a curve guide is arranged indirectly or directly on the bearing axis, wherein a first curve guide movable by the bearing axis is provided for moving the closing device and at least one second curve guide movable by the bearing axis is provided for moving the damper, characterized in that a catch mechanism is provided, to latch the closing device in a tensioned state when the door is open, whereby the catch mechanism has a catch pawl actuable by a control curve being provided directly or indirectly on the bearing axis of the bearing arrangement, whereby the catch pawl is pre-tensioned by a spring in the position which releases the latching.
Tractor, having a longitudinal axis (X-X) lying on a centreline plane and a transverse axis (Y-Y) perpendicular to it, comprising a driving area for the user, and an operating region that extends along said longitudinal axis (X-X) frontally to the driving area, wherein, in the operating region, the tractor comprises a motor group placed along the longitudinal axis (X-X) proximal to the driving area, and a cooling system placed along the longitudinal axis (X-X) distally from the driving area, wherein said cooling system comprises two cooling groups independent and transversely distanced from each other identifying an intermediate region, wherein each cooling group comprises a main radiator body having a cooling surface crossable by the air tangent to an imaginary plane, wherein said imaginary plane is inclined longitudinally by a predefined angle of longitudinal inclination (α) with respect to the centreline plane; characterised in that the tractor comprises a power take-off accessible frontally to the tractor by a user and operatively connected to the motor group by a power shaft, wherein the power shaft extends in length along the longitudinal axis (X-X) being housed in the intermediate region.
Motor vehicle comprising a battery for storing electrical energy, which battery comprises at least one battery cell having a housing with an accommodating space in which an electrolyte of the battery is accommodated, and comprising at least one opening element, by means of which when at least one predefined condition is met at least one outlet opening of the housing can be formed for the electrolyte, wherein at least one sorption element is provided for sorbing the electrolyte flowing out of the housing via the outlet opening, wherein the opening element comprises at least one opening part for forming the outlet opening and an actuator, by means of which, in order to form the outlet opening, the opening part can be driven from a rest position into at least one use position so that the opening part comes to bear against the housing and penetrates the latter so as to form the outlet opening in a targeted manner, wherein the opening part in the use position partially protrudes into the accommodating space and partially protrudes out of the accommodating space via the outlet opening and has at least one passage opening through which the electrolyte can flow and via which the electrolyte in the use position of the opening part can be guided out of the accommodating space to the area surrounding the housing, wherein at least one sensor (26, 28, 30) is provided for detecting an accident-induced application of force on the motor vehicle and a control unit coupled to the sensor (26, 28, 30) is provided for receiving from the sensor (26, 28, 30) a signal characterising the accident-induced application of force, wherein the control unit is designed to trigger the formation of the outlet opening, brought about by the opening element, as a function of the received signal, and wherein a passive opening element is provided which comprises an intrusive body which, due to the accident-induced application of force, is to be pressed into the battery cell so as to form at least one outlet opening in the housing.
An ion source comprising: a housing that defines a chamber; a capillary having a receiving end and a delivery end, wherein a liquid sample can be received from outside of the chamber through the receiving end and sprayed into droplets out of the delivery end in the chamber; and a tube surrounding the capillary for transmitting a nebulizing gas to a location near the delivery end of the capillary to nebulize the sample, characterized by further comprising a conduit surrounding the tube for transmitting a heated gas, the conduit comprising an electrically insulating layer and being connected to a nozzle (46, 46', 48) to release the heated gas into the chamber, wherein the nozzle comprises at least one electrode to which a potential can be applied, which contributes to the generation of an electrical field at the delivery end of the capillary, wherein the heated gas and the nebulizing gas are both released into the chamber in a flow parallel to the capillary. a housing that defines a chamber; a capillary having a receiving end and a delivery end, wherein a liquid sample can be received from outside of the chamber through the receiving end and sprayed into droplets out of the delivery end in the chamber; and a tube surrounding the capillary for transmitting a nebulizing gas to a location near the delivery end of the capillary to nebulize the sample, characterized by further comprising a conduit surrounding the tube for transmitting a heated gas, the conduit comprising an electrically insulating layer and being connected to a nozzle (46, 46', 48) to release the heated gas into the chamber, wherein the nozzle comprises at least one electrode to which a potential can be applied, which contributes to the generation of an electrical field at the delivery end of the capillary, wherein the heated gas and the nebulizing gas are both released into the chamber in a flow parallel to the capillary.
A printed circuit board assembly comprising: a first PCB with a first heat generating component mounted on a top side thereof; and a first plurality of pin-fins extending away from the first PCB on a bottom side of the first PCB opposite from the first heat generating component, characterised in that the PCB assembly further comprises: a second PCB with a second heat generating component mounted on a top side thereof; a second plurality of pin-fins extending away from the second PCB on a bottom side of the second PCB opposite from the second heat generating component; and a sidewall component assembled between the bottom side of the first PCB and the bottom side of the second PCB to enclose the first and second pluralities of pin-fins in a cooling channel defined between the sidewall component and the first and second PCBs (102, 103). a first PCB with a first heat generating component mounted on a top side thereof; and a first plurality of pin-fins extending away from the first PCB on a bottom side of the first PCB opposite from the first heat generating component, characterised in that the PCB assembly further comprises: a second PCB with a second heat generating component mounted on a top side thereof; a second plurality of pin-fins extending away from the second PCB on a bottom side of the second PCB opposite from the second heat generating component; and a sidewall component assembled between the bottom side of the first PCB and the bottom side of the second PCB to enclose the first and second pluralities of pin-fins in a cooling channel defined between the sidewall component and the first and second PCBs (102, 103). a second PCB with a second heat generating component mounted on a top side thereof; a second plurality of pin-fins extending away from the second PCB on a bottom side of the second PCB opposite from the second heat generating component; and a sidewall component assembled between the bottom side of the first PCB and the bottom side of the second PCB to enclose the first and second pluralities of pin-fins in a cooling channel defined between the sidewall component and the first and second PCBs (102, 103).
A nucleic acid complex comprising at least one cycloamylose compound selected from the group consisting of cycloamylose and derivatives thereof, and a nucleic acid molecule capable of RNA interference or translation inhibition, wherein the cycloamylose compound has a polymerization degree of 10 to 100.
A method of estimating the torque of an axle of a running motor, comprising: receiving data indicative of the total electrical active power, P, supplied to the motor; decomposing the total electrical active power, P, into a fundamental frequency component, P1, and harmonic frequency components; decomposing the fundamental frequency component, P1, into symmetrical components including at least a positive sequence power component, P+, and a negative sequence power component, P-; determining the electromechanical power, P em, supplied to the axle using the data indicative of the total electrical active power, P, by subtracting a sum of the negative sequence power component, P-, and harmonic frequency components that provide a negative contribution to mechanical power at the axle from a sum of the positive sequence power component, P+, and harmonic frequency components that provide a positive contribution to mechanical power at the axle; receiving data indicative of a rotor speed, n r, or rotor frequency, f r, of the axle including receiving data indicative of the load dependent slip, s, and the synchronous speed, n s, or frequency, f s, of the motor; determining an angular rotor frequency, ω r, of the axle using the data indicative of the rotor speed, n r, or rotor frequency, f r, of the axle; and determining electromechanical axle torque, T em, using the determined electromechanical power, P em, and the determined angular rotor frequency, ω r. receiving data indicative of the total electrical active power, P, supplied to the motor; decomposing the total electrical active power, P, into a fundamental frequency component, P1, and harmonic frequency components; decomposing the fundamental frequency component, P1, into symmetrical components including at least a positive sequence power component, P+, and a negative sequence power component, P-; determining the electromechanical power, P em, supplied to the axle using the data indicative of the total electrical active power, P, by subtracting a sum of the negative sequence power component, P-, and harmonic frequency components that provide a negative contribution to mechanical power at the axle from a sum of the positive sequence power component, P+, and harmonic frequency components that provide a positive contribution to mechanical power at the axle; receiving data indicative of a rotor speed, n r, or rotor frequency, f r, of the axle including receiving data indicative of the load dependent slip, s, and the synchronous speed, n s, or frequency, f s, of the motor; determining an angular rotor frequency, ω r, of the axle using the data indicative of the rotor speed, n r, or rotor frequency, f r, of the axle; and determining electromechanical axle torque, T em, using the determined electromechanical power, P em, and the determined angular rotor frequency, ω r.