mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a Coriolis flowmeter having a fluid flow to derive non-linear temperature compensated fluid flow output information for said Coriolis flowmeter, said method comprising the steps of: measuring the operating temperature T of a flow tube means of said Coriolis flowmeter, characterized in that said method includes the further steps of: storing measured values of Young's modulus E for a plurality of measured operating temperatures T of said flow tube means, curve fitting said measured values of E to obtain a non-linear expression for E expressed as a function of T, defining an expression relating said fluid flow output information to said operating temperature T and to non-linear temperature compensation information, using said non-linear expression for Young's modulus E as said non-linear temperature compensation information in said defined expression, solving said defined expression to generate said non-linear temperature compensated fluid flow output information for said Coriolis flowmeter at said operating temperature T. measuring the operating temperature T of a flow tube means of said Coriolis flowmeter, characterized in that said method includes the further steps of: storing measured values of Young's modulus E for a plurality of measured operating temperatures T of said flow tube means, curve fitting said measured values of E to obtain a non-linear expression for E expressed as a function of T, defining an expression relating said fluid flow output information to said operating temperature T and to non-linear temperature compensation information, using said non-linear expression for Young's modulus E as said non-linear temperature compensation information in said defined expression, solving said defined expression to generate said non-linear temperature compensated fluid flow output information for said Coriolis flowmeter at said operating temperature T. storing measured values of Young's modulus E for a plurality of measured operating temperatures T of said flow tube means, curve fitting said measured values of E to obtain a non-linear expression for E expressed as a function of T, defining an expression relating said fluid flow output information to said operating temperature T and to non-linear temperature compensation information, using said non-linear expression for Young's modulus E as said non-linear temperature compensation information in said defined expression, solving said defined expression to generate said non-linear temperature compensated fluid flow output information for said Coriolis flowmeter at said operating temperature T.
Dishwasher, in particular household dishwasher, with a dishwasher cavity, which has an at least essentially rectangular outline with a front side facing towards a user in the operating position and which is provided with at least one basket, in which items to be cleaned can be held, to which water and/or wash liquor can be applied via at least one spray facility (5;6) assigned to each basket, wherein at least one spray facility is arranged as a front spray facility in a position offset towards the front side and a further spray facility is provided as an additional spray system with one or more further outlet openings for water and/or wash liquor, which compared to the first spray facility is offset away from the front side towards the rear as a rear spray facility, wherein both spray facilities (5;6) are able to be supplied with water and/or wash liquor by a common inlet pipe which is extended below the basket with a component in the direction towards the front side, wherein the two spray facilities (5,6) fed by the inlet pipe, when viewed in the height extension, lie offset even further downward in a preferably common plane below the inlet pipe, and the inlet pipe has a deepest point above an inlet (12; 13) in the front or in the rear spray facility, so that the water and/or the wash liquor is able to run directly into the spray facility (5;6) situated below and as a result the inlet pipe is able to drain at least approximately fully, characterised in that the deepest point forms a kink in the course of the inlet pipe.
Rivet control for controlling the motion of rivet elements or the like, in particular for receiving and forwarding rivet elements, having at least one rivet control unit, wherein the rivet control unit has a rivet channel through which the particular rivet elements can be pushed, possibly driven by a fluid flow, wherein the rivet channel has an inlet section and an outlet section, wherein the rivet control unit has a control shaft, which extends through at least a part of the rivet channel in a control region between the inlet section and the outlet section, and wherein the arrangement is such that the passage of rivet elements and/or fluid through the control region can be controlled by swivelling the control shaft, characterized in that at least two adjacently disposed rivet control units are provided, in that a common control shaft is provided, and in that control shafts of rivet control units are each provided by an axial section of common control shaft.
An ink j et that includes: a solenoid coil; a plunger rod comprising: a magnetically susceptible shank having a first end received within a bore of the solenoid coil, and a second end opposite the first end, wherein the second end has a larger diameter than the first end and includes a cup-shaped cavity, and a tip formed of a resilient, chemically resistant material disposed in the cup-shaped cavity; a nozzle including an orifice extending therethrough; and a spring biasing the second end of the shank toward the nozzle, wherein absent electrical power being supplied to the solenoid coil, the spring biases the tip into contact with the orifice of the nozzle and the tip deforms from its original shape to form a seal with the orifice; and in response to electrical power being supplied to the solenoid coil, the tip moves away from the orifice of the nozzle against the bias of the spring and resumes its original shape. a solenoid coil; a plunger rod comprising: a magnetically susceptible shank having a first end received within a bore of the solenoid coil, and a second end opposite the first end, wherein the second end has a larger diameter than the first end and includes a cup-shaped cavity, and a tip formed of a resilient, chemically resistant material disposed in the cup-shaped cavity; a first end received within a bore of the solenoid coil, and a second end opposite the first end, wherein the second end has a larger diameter than the first end and includes a cup-shaped cavity, and a tip formed of a resilient, chemically resistant material disposed in the cup-shaped cavity; a nozzle including an orifice extending therethrough; and a spring biasing the second end of the shank toward the nozzle, wherein absent electrical power being supplied to the solenoid coil, the spring biases the tip into contact with the orifice of the nozzle and the tip deforms from its original shape to form a seal with the orifice; and in response to electrical power being supplied to the solenoid coil, the tip moves away from the orifice of the nozzle against the bias of the spring and resumes its original shape.
A method for wireless communications by a base station, BS, comprising identifying an operating state of a user equipment, UE, that communicates with the BS in at least one narrowband region; determining, based on the operating state, one or more operating parameters of a configurable measurement procedure whereby the UE tunes away from the narrowband region to measure signals transmitted from other BSs, wherein the operating state corresponds to a certain level of coverage enhancement, CE, of the UE utilizing bundled transmissions whereby transmissions are repeated, wherein the determining comprises determining one or more parameters that cause the UE to skip reporting the measurement procedure if: the level of CE is below a threshold value; and a signal to noise ratio, SNR, of a connection between the UE and BS is above a threshold level; and configuring the UE to perform the measurement procedure in accordance with the determined operating parameters. the level of CE is below a threshold value; and a signal to noise ratio, SNR, of a connection between the UE and BS is above a threshold level; and
An arrangement for producing ammonia from first and second ionic components, comprising: an electrochemical cell comprising four volumes (1, 2, 3, 4), a porous anode between a first volume and a second volume, a ground electrode between the second volume and the third volume and a porous cathode between the third volume and the fourth volume; - means for introducing steam H 2 O into the first volume; - means for introducing nitrogen N 2 into the fourth volume; - a first electrolyte provided between the anode and the ground electrode; - a second electrolyte is provided between the cathode and the ground electrode, further comprising: - at least one power supply, arranged to apply a positive voltage +V to the anode, with respect to the voltage of the ground electrode, and to apply a negative voltage -V to the cathode, with respect to the voltage of the ground electrode. an electrochemical cell comprising four volumes (1, 2, 3, 4), a porous anode between a first volume and a second volume, a ground electrode between the second volume and the third volume and a porous cathode between the third volume and the fourth volume; - means for introducing steam H 2 O into the first volume; - means for introducing nitrogen N 2 into the fourth volume; - a first electrolyte provided between the anode and the ground electrode; - a second electrolyte is provided between the cathode and the ground electrode, - means for introducing steam H 2 O into the first volume; - means for introducing nitrogen N 2 into the fourth volume; - a first electrolyte provided between the anode and the ground electrode; - a second electrolyte is provided between the cathode and the ground electrode, further comprising: - at least one power supply, arranged to apply a positive voltage +V to the anode, with respect to the voltage of the ground electrode, and to apply a negative voltage -V to the cathode, with respect to the voltage of the ground electrode. - at least one power supply, arranged to apply a positive voltage +V to the anode, with respect to the voltage of the ground electrode, and to apply a negative voltage -V to the cathode, with respect to the voltage of the ground electrode.
A wear leveling and access method for a non-volatile memory (510, 710), comprising: logically dividing the non-volatile memory (510, 710) into p levels of physical units, wherein the non-volatile memory (510, 710) comprises a plurality of 1 st -level physical units, and each (p-1) th -level physical unit comprises a plurality of p th -level physical units, p being a positive integer greater than 1; and migrating, when a time cycle corresponding to q th -level physical units arrives, data in each of the q th -level physical units to another q th -level physical unit, q being any positive integer from 1 to p, characterized in that: the method further comprises: setting, when a user accesses the non-volatile memory (510, 710), a logical address of an a th physical unit among n q th -level physical units to (x/Q+y/A)%n, wherein x is a logical address of the non-volatile memory (510, 710), Q is a size of each of the q th -level physical units, y is the user's access time, and A is a time cycle corresponding to the q th -level physical units. logically dividing the non-volatile memory (510, 710) into p levels of physical units, wherein the non-volatile memory (510, 710) comprises a plurality of 1 st -level physical units, and each (p-1) th -level physical unit comprises a plurality of p th -level physical units, p being a positive integer greater than 1; and migrating, when a time cycle corresponding to q th -level physical units arrives, data in each of the q th -level physical units to another q th -level physical unit, q being any positive integer from 1 to p, characterized in that: the method further comprises: setting, when a user accesses the non-volatile memory (510, 710), a logical address of an a th physical unit among n q th -level physical units to (x/Q+y/A)%n, wherein x is a logical address of the non-volatile memory (510, 710), Q is a size of each of the q th -level physical units, y is the user's access time, and A is a time cycle corresponding to the q th -level physical units.
Profile made of foamed polyvinyl chloride polymer comprising 80 to 120 weight parts of naturally occurring mineral filler for every 100 weight parts of polyvinyl chloride, and PVC with a K-value of 50-58, with the proviso that the profile does not comprise glass fibers.
A method of fabricating a monolithic three dimensional memory structure, the method comprising: forming a stack of alternating word line and dielectric layers above a substrate; forming a source line above the substrate and under the stack of alternating word line and dielectric layers; forming a memory hole extending through the alternating word line and dielectric layers and the source line; and forming a mechanical support element on the substrate adjacent to the memory hole, the stack of alternating word line and dielectric layers being above the mechanical support element; forming an outer layer in the memory hole; forming a vertical channel on the outer layer in the memory hole; and characterised in that the method further comprises: selectively removing a portion of the outer layer to expose a peripheral exterior of the vertical channel; and forming the source line in contact with the exposed peripheral exterior of the vertical channel. forming a stack of alternating word line and dielectric layers above a substrate; forming a source line above the substrate and under the stack of alternating word line and dielectric layers; forming a memory hole extending through the alternating word line and dielectric layers and the source line; and forming a mechanical support element on the substrate adjacent to the memory hole, the stack of alternating word line and dielectric layers being above the mechanical support element; forming an outer layer in the memory hole; forming a vertical channel on the outer layer in the memory hole; and characterised in that the method further comprises: selectively removing a portion of the outer layer to expose a peripheral exterior of the vertical channel; and forming the source line in contact with the exposed peripheral exterior of the vertical channel. selectively removing a portion of the outer layer to expose a peripheral exterior of the vertical channel; and forming the source line in contact with the exposed peripheral exterior of the vertical channel.
A method for identifying a compound which inhibits the activity of acyl-coA: diacylglycerol acyltransferase (DGAT) in cells, comprising the steps of: a. contacting a stable isotope labeled fatty acid with cells in the presence and the absence of said compound; b. extracting said cells with isopropyl alcohol; c. determining the level of a stable isotope labeled triglyceride in the presence of said compound; and d. determining the level of a stable isotope labeled triglyceride in the absence of said compound; whereby a change in the level of the stable isotope labeled triglyceride is indicative of said compound inhibiting DGAT activity. diacylglycerol acyltransferase (DGAT) in cells, comprising the steps of: a. contacting a stable isotope labeled fatty acid with cells in the presence and the absence of said compound; b. extracting said cells with isopropyl alcohol; c. determining the level of a stable isotope labeled triglyceride in the presence of said compound; and d. determining the level of a stable isotope labeled triglyceride in the absence of said compound; a. contacting a stable isotope labeled fatty acid with cells in the presence and the absence of said compound; b. extracting said cells with isopropyl alcohol; c. determining the level of a stable isotope labeled triglyceride in the presence of said compound; and d. determining the level of a stable isotope labeled triglyceride in the absence of said compound;
Seal for an aircraft, the seal comprising an elongated body comprising a Y-shaped cross-section with two legs (4, 5) and an additional branch located approximately opposite to the bisector of the two legs (4, 5), each of the legs (4, 5) having an edge (6, 7) located opposite to the branch, the seal being configured to be fixed to a fairing of the aircraft and configured to be applied against the surface of a lifting surface of the aircraft, the seal further comprising a flexible connection extending between the edges (6, 7) of the two legs (4, 5), characterised by each leg (4, 5) comprising two opposite sides, an inner side (4.1, 5.1) facing the other leg (4, 5) and an outer side (4.2, 5.2) opposite to the inner side (4.1, 5.1), the flexible connection being joined to the inner sides (4.1, 5.1) of the edges of the legs (4, 5).
A continuous, real-time blending system, comprising: one or more tank platforms, wherein the tank platforms are transportable via road, rail, or vessel; one or more bulk containers located on the tank platforms, wherein two or more of the bulk containers are configured to store and handle concentrated fluids; a blending platform, wherein the blending platform is transportable via road, rail, or vessel, and wherein the blending platform is coupled to one or more of the tank platforms during use; a blending unit located on the blending platform, wherein the blending unit is configured to blend two or more of the concentrated fluids with water to continuously produce desired fluids comprising concentrated fluid and water, wherein the desired fluids are used in a well in a subsurface of the earth; and a controller coupled to the blending unit and located on the blending platform, wherein the controller is configured to provide the produced desired fluids with one or more properties that vary over time with a selected variation profile, characterized by a scrubber/recovery system located on the blending platform, wherein the scrubber/recovery system is configured to collect vapors from the bulk containers and/or the blending unit, allow the vapors to condense, and provide the condensed vapor to one or more of the bulk containers. one or more tank platforms, wherein the tank platforms are transportable via road, rail, or vessel; one or more bulk containers located on the tank platforms, wherein two or more of the bulk containers are configured to store and handle concentrated fluids; a blending platform, wherein the blending platform is transportable via road, rail, or vessel, and wherein the blending platform is coupled to one or more of the tank platforms during use; a blending unit located on the blending platform, wherein the blending unit is configured to blend two or more of the concentrated fluids with water to continuously produce desired fluids comprising concentrated fluid and water, wherein the desired fluids are used in a well in a subsurface of the earth; and a controller coupled to the blending unit and located on the blending platform, wherein the controller is configured to provide the produced desired fluids with one or more properties that vary over time with a selected variation profile, characterized by a scrubber/recovery system located on the blending platform, wherein the scrubber/recovery system is configured to collect vapors from the bulk containers and/or the blending unit, allow the vapors to condense, and provide the condensed vapor to one or more of the bulk containers.
A switch-mode power supply comprising: an input port; an output port; a power train operably connected to the input port and the output port, where the power train includes at least one inductor and at least one switching device; and a control logic configured to periodically calculate an equivalent current to current through the at least one inductor and further configured to control operation of the power train at least in part by switching the at least one switching device based at least in part on the calculated equivalent current; where the control logic is configured to cause the at least one switching device to switch off based on the calculated current reaching or exceeding a current limit threshold which is set above a current measurement range of the control logic and to cause the at least one switching device to switch on based at least in part on the calculated current decreasing below a second threshold corresponding to a hysteresis of the current limit threshold. an input port; an output port; a power train operably connected to the input port and the output port, where the power train includes at least one inductor and at least one switching device; and a control logic configured to periodically calculate an equivalent current to current through the at least one inductor and further configured to control operation of the power train at least in part by switching the at least one switching device based at least in part on the calculated equivalent current; where the control logic is configured to cause the at least one switching device to switch off based on the calculated current reaching or exceeding a current limit threshold which is set above a current measurement range of the control logic and to cause the at least one switching device to switch on based at least in part on the calculated current decreasing below a second threshold corresponding to a hysteresis of the current limit threshold.
Laundry appliance for the care of laundry, wherein the laundry appliance comprises a laundry drum for receiving laundry, a mist generation device for generating a water mist, and a deodorising device having an ozone generation element for generating ozone, characterised in that the mist generation device is designed to generate a quantity of water mist in a first time period and to feed it to the laundry drum, the ozone generation element is designed to generate a quantity of ozone in a second time period following on from the first time period and to feed it to the laundry drum, in order to bring about a reduction in odours in the laundry, and the deodorising device further comprises an additive dispensing element which is designed to dispense a quantity of an additive through the mist generation device to the laundry drum in a third time period following on from the second time period, in order to feed the additive to the laundry.
Method for ventilating a building, comprising steps of: - providing a ventilation unit mainly in the top area of the building, arranged for exchanging the air inside and outside the building; - providing a central room, e.g. a stairwell or hall, via which several other rooms can be entered via inner doors, wherein the ventilation unit is arranged to feed fresh air to the central room; characterized in that the method furthermore comprises the steps of: - providing at least part of said inner doors and /or separation wall with at least one ventilator arranged to force air to move from the central room to the relevant other room and/or vice versa, wherein the inner door and/or the separation wall further is provided with at least one of a further ventilation means and a passive opening for the surplus of a return flow of air to create a two-way flow rate over the inner doors. - providing a ventilation unit mainly in the top area of the building, arranged for exchanging the air inside and outside the building; - providing a central room, e.g. a stairwell or hall, via which several other rooms can be entered via inner doors, wherein the ventilation unit is arranged to feed fresh air to the central room; - providing at least part of said inner doors and /or separation wall with at least one ventilator arranged to force air to move from the central room to the relevant other room and/or vice versa, wherein the inner door and/or the separation wall further is provided with at least one of a further ventilation means and a passive opening for the surplus of a return flow of air to create a two-way flow rate over the inner doors.