mhurhangee/ep-ind-claims huggingface dataset:
A method for optical channel data unit, ODU, service scheduling, comprising: acquiring a value n of an ODUCn, and distributing low order ODUj data to be mapped to a number n of ODUk mapping channels and an ODUCn mapping channel; mapping the ODUj data distributed to the ODUk mapping channels onto an ODUk service, and outputting ODUk data; combining the ODUk data and the ODUj data distributed to the ODUCn mapping channel and obtaining combined ODUj data; and mapping the combined ODUj data onto an ODUCn service and mapping the ODUj data distributed to the ODUCn mapping channel onto the ODUCn service, wherein before mapping the ODUj data distributed to the ODUk mapping channels onto the ODUk service, the method further comprises: determining an ODUk mapping bit width according to a clock signal and a bit rate of the ODUk service; and adjusting a bit width of ODUj time division data in the ODUj data distributed to the ODUk mapping channels according to the ODUk mapping bit width. acquiring a value n of an ODUCn, and distributing low order ODUj data to be mapped to a number n of ODUk mapping channels and an ODUCn mapping channel; mapping the ODUj data distributed to the ODUk mapping channels onto an ODUk service, and outputting ODUk data; combining the ODUk data and the ODUj data distributed to the ODUCn mapping channel and obtaining combined ODUj data; and mapping the combined ODUj data onto an ODUCn service and mapping the ODUj data distributed to the ODUCn mapping channel onto the ODUCn service, wherein before mapping the ODUj data distributed to the ODUk mapping channels onto the ODUk service, the method further comprises: determining an ODUk mapping bit width according to a clock signal and a bit rate of the ODUk service; and adjusting a bit width of ODUj time division data in the ODUj data distributed to the ODUk mapping channels according to the ODUk mapping bit width. determining an ODUk mapping bit width according to a clock signal and a bit rate of the ODUk service; and adjusting a bit width of ODUj time division data in the ODUj data distributed to the ODUk mapping channels according to the ODUk mapping bit width.
Thermal storage device for thermal storage in the form of latent heat comprising a reservoir containing at least one phase-change material, for example NaNO 3 + 1% NaOH, at least one first heat exchanger (4, 104) arranged outside the reservoir, wherein the heat exchanger (4, 104) is intended to ensure heat exchange between the phase-change material contained in the reservoir and a coolant in charge phase and in discharge phase, wherein first connecting means between the reservoir and the heat exchanger ensure circulation of the phase-change material contained in the reservoir through the first heat exchanger (4, 104), means for circulation of the phase-change material between the reservoir and the first heat exchanger (4, 104), wherein the phase-change material is in the reservoir partially as solid phase material system (MCPS) forming an agglomerate at least at the beginning of a charge phase, wherein the (MCPS) agglomerate is located in a lower part of the reservoir, characterized in that the device comprises: - means (22, 122) designed to create at least one circulation path in the (MCPS) agglomerate and/or between the (MCPS) agglomerate and a wall of the reservoir between an upper zone and a lower zone, to ensure circulation of the liquid phase-change material in the (MCPS) agglomerate and/or between the (MCPS) agglomerate and a wall of the reservoir, and - internal means in the reservoir to ensure a reduction of the volume of the (MCPS) agglomerate and to allow the circulation of phase-change material towards the first heat exchanger (4, 104), of the reduction means. - means (22, 122) designed to create at least one circulation path in the (MCPS) agglomerate and/or between the (MCPS) agglomerate and a wall of the reservoir between an upper zone and a lower zone, to ensure circulation of the liquid phase-change material in the (MCPS) agglomerate and/or between the (MCPS) agglomerate and a wall of the reservoir, and - internal means in the reservoir to ensure a reduction of the volume of the (MCPS) agglomerate and to allow the circulation of phase-change material towards the first heat exchanger (4, 104), of the reduction means.
Multiple batch system for the preparation of a solution of calcium hydrogen carbonate, the multiple batch system comprising a) at least one dosing unit, b) a master batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, c) at least one slave batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, wherein the master batch line and the at least one slave batch line are independently connected to the at least one dosing unit, wherein the units being part of the master batch line are coupled with each other in a loop-like system, and the units being part of the at least one slave batch line are coupled with each other in a loop-like system, and wherein the at least one mixing unit of the master batch line and/or the at least one slave batch line is located between the at least one gas dosing inlet and the at least one tank. a) at least one dosing unit, b) a master batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, c) at least one slave batch line comprising in circular communication i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet, i) at least one gas dosing inlet, ii) at least one mixing unit provided with at least one inlet and at least one outlet, and iii) at least one tank provided with at least one inlet and at least one outlet,
A connector comprising: a housing (22, 27) configured to be mated with a mating connector in a mating direction having a plurality of contact pads arranged on a mating face extending in a plane intersecting with the mating direction; a mating face facing the mating face of the mating connector when the mating connector is mated with the connector; and a plurality of contacts arranged on the mating face of the connector and configured to make contact with the plurality of contact pads of the mating connector, respectively; characterized by a slide plate having a cam face composed of a pattern of projections and recesses and expanding in a direction intersecting with the mating direction, and configured to slide in a lateral direction intersecting with the mating direction according to a driving operation; and a moving plate expanding in an overlapping manner with the slide plate, and configured to receive an action of the cam face caused by sliding of the slide plate according to the driving operation so as to move toward the mating connector and push the plurality of contacts on to the plurality of contact pads of the mating connector. a housing (22, 27) configured to be mated with a mating connector in a mating direction having a plurality of contact pads arranged on a mating face extending in a plane intersecting with the mating direction; a mating face facing the mating face of the mating connector when the mating connector is mated with the connector; and a plurality of contacts arranged on the mating face of the connector and configured to make contact with the plurality of contact pads of the mating connector, respectively; characterized by a slide plate having a cam face composed of a pattern of projections and recesses and expanding in a direction intersecting with the mating direction, and configured to slide in a lateral direction intersecting with the mating direction according to a driving operation; and a moving plate expanding in an overlapping manner with the slide plate, and configured to receive an action of the cam face caused by sliding of the slide plate according to the driving operation so as to move toward the mating connector and push the plurality of contacts on to the plurality of contact pads of the mating connector.
An apparatus for dehusking husk cereal, in particular as a laboratory or small-quantity peeler of husk cereal, and for producing dehusked husk cereal seeds, which apparatus comprises a peeling device having a first disk and a second disk which is movable relative to the first disk and which can be driven about a vertical rotation shaft, the disks (40; 42) enclosing, between the main surfaces thereof, a working space, which can be filled with husk cereal by side opposite the second disk via a filling opening of the first disk in the region of the center point thereof, grain and husk of the husk cereal being peeled by rotation of the second disk by a radial movement along the disks (40; 42), so that grain and husk of the husk cereal leave the peeling device on the outer periphery thereof via an outlet opening, characterized in that the main surfaces of the disks (40; 42) have a surface made of a temperature-stable and resilient material (64; 68), and the outlet opening opens into a collecting vessel via a downpipe, the downpipe having a side supply-air opening which is subjected to an air flow in such a way that husk leaves the downpipe laterally upstream of the collecting vessel. the main surfaces of the disks (40; 42) have a surface made of a temperature-stable and resilient material (64; 68), and the outlet opening opens into a collecting vessel via a downpipe, the downpipe having a side supply-air opening which is subjected to an air flow in such a way that husk leaves the downpipe laterally upstream of the collecting vessel.
Method for one-sided nondestructive testing of objects made of different materials with surface waves or Lamb waves, using a device, the device comprising at least one housing, wherein at least two transducers (2, 3) are arranged in the housing, wherein at least one of the transducers is a first transducer for generating ultrasonic pulses and at least one of the transducers is a second transducer spaced apart from the first transducer for receiving ultrasonic signals, wherein the at least two transducers (2, 3) are arranged spaced apart from the object to be tested by means of at least one gas-filled space, and the device comprises connecting means for connecting the device to a control and evaluation device, by means of which the first transducer can be controlled and the signals received by the second transducer can be evaluated, wherein the first transducer is arranged at an angle (α) of between 0° and 90° relative to the object and the second transducer is likewise arranged at an angle (β) of between 0° and 90° relative to the object, wherein the angle (α) of the first transducer and the angle (β) of the second transducer relative to the object to be tested is the same, wherein the at least two transducers (2, 3) are inclined in the same direction in relation to the object to be tested, wherein the device has a distance control unit which monitors the distances between the device and the object to be tested, characterised in that the first transducer is arranged parallel to the second transducer and an air cushion device (1d; 1e) is arranged in the lower region of the device, said method consisting of the following steps: - guiding the device along the surface of the object or stationary positioning the device on the object, - generating ultrasonic pulses with at least one predefined frequency and a selected angle of incidence so as to generate surface waves or Lamb wave modes in the object, - detecting the ultrasound propagated as surface waves or Lamb wave modes at a distance from the site of irradiation, - evaluating and analysing the identified signals. - guiding the device along the surface of the object or stationary positioning the device on the object, - generating ultrasonic pulses with at least one predefined frequency and a selected angle of incidence so as to generate surface waves or Lamb wave modes in the object, - detecting the ultrasound propagated as surface waves or Lamb wave modes at a distance from the site of irradiation, - evaluating and analysing the identified signals.
An integrated electrohydrodynamic jet printing and spatial atomic layer deposition system for conducting nanofabrication, the system comprising: an electrohydrodynamic jet printing station that includes an E-jet printing nozzle; a spatial atomic layer deposition station that includes a zoned ALD precursor gas distributor that discharges linear zone-separated first and second ALD precursor gases; a heatable substrate plate supported on a motion actuator controllable to move the substrate plate in three dimensions; and a conveyor on which the motion actuator is supported, the conveyor being operative to move the motion actuator between the electrohydrodynamic jet printing station and the spatial atomic layer deposition station so that the substrate plate is conveyable between a printing window of the E-jet printing nozzle and a deposition window of the zoned ALD precursor gas distributor, respectively. an electrohydrodynamic jet printing station that includes an E-jet printing nozzle; a spatial atomic layer deposition station that includes a zoned ALD precursor gas distributor that discharges linear zone-separated first and second ALD precursor gases; a heatable substrate plate supported on a motion actuator controllable to move the substrate plate in three dimensions; and a conveyor on which the motion actuator is supported, the conveyor being operative to move the motion actuator between the electrohydrodynamic jet printing station and the spatial atomic layer deposition station so that the substrate plate is conveyable between a printing window of the E-jet printing nozzle and a deposition window of the zoned ALD precursor gas distributor, respectively.
Method for operating a hybrid vehicle, in which at least two assemblies, at least one of which is an internal combustion engine, make available torque for a hybrid vehicle drive, wherein a total reserve torque which is required is detected and limits of currently available reserve torques of each individual assembly are determined, wherein at the internal combustion engine a reserve torque which can be achieved by increasing its air charge with simultaneous adjustment of the ignition angle is determined taking into account a combustibility limit of its fuel, and at at least one electric motor as a further assembly a maximum torque and/or a minimum torque and/or a state of charge of an energy store which supplies the electric motor with drive power is used as a limit, and wherein the total reserve torque is apportioned between the individual assemblies within the determined limits as a function of the limits of the currently available reserve torques, wherein a total gain of a rotational speed regulator is determined with a total proportional component and/or a total differential component which are/is apportioned between the assemblies in accordance with the apportioning of the total reserve torque.
A hydrophilic polyurethane foam dressing material with improved moisturizing rate, in which a wound contact layer having a sponge structure composed of multiple open cells and pores passing through the cells is laminated with a protective film, and the lamination is performed at 150 ∼ 250 °C under a pressure of 0.0245 ∼ 0.0981 MPa (0.25∼1 kgf/cm 2), wherein the wound contact layer has a moisturizing rate of 300 ∼ 1200 % and the pore area (membrane opening) takes 10 ∼ 35 % of the total cell area; wherein the mean diameter of the open cells is 50 ∼ 300 μ m and the mean diameter of the pores is 5 ∼ 85 μ m; wherein the ratio of the open cells to the wound contact layer is 20 ∼ 70 %; wherein the wound contact layer has a density of 0.15 ∼ 0.45 g/cm 3; and wherein the wound contact layer has a water absorptiveness of 400 ∼ 2000 weight%.
An agricultural harvester with crop residue spread monitoring system, the agricultural harvester comprising a self-propelled agricultural harvesting vehicle with a threshing rotor supported in a grating, a chopper disposed to chop crop residue exiting the threshing rotor, and a spreader mechanism disposed to receive chopped material from the chopper and spread the chopped residue over the ground, wherein the crop residue spread monitoring system comprises at least one camera (142, 144, 146, 150, 152), characterized in that the camera (142, 144, 146, 150, 152) is disposed below or adjacent an exit of the spreader mechanism, said camera being configured to image a plume of residue leaving the spreader mechanism from an underside of the plume of residue.
A pressure protection valve for a hydraulic tool having a fluid pressure inlet, the pressure protection valve being adapted to provide a fluid short circuit between the fluid pressure inlet and a low pressure region when the pressure at the fluid pressure inlet exceeds a predetermined first trigger pressure, wherein the pressure protection valve is arranged to provide fluid communication between the fluid pressure inlet and a low pressure region when the pressure at the fluid pressure inlet exceeds a predetermined first trigger pressure, and to maintain the fluid communication until the pressure at the fluid pressure inlet reduces to a pressure below a predetermined second trigger pressure which is less than the first trigger pressure, characterised by the pressure protection valve including a first spool valve and a second spool valve arranged in series, the first spool valve having a first spool valve input adapted to be in fluid communication with the fluid pressure inlet line and a first spool valve output in fluid communication with the second spool valve, the first spool valve being moveable between a closed position in which the first spool valve output is closed when the pressure at the first spool valve input does not exceed the predetermined first trigger pressure and an open position in which the first spool valve output is in fluid communication with the first spool valve input when the pressure at the first spool valve input exceeds the predetermined first trigger pressure, and the second spool valve having a second spool valve input in fluid communication with the first spool valve output, a second spool valve output adapted to be in fluid communication with a low pressure region and a third spool valve input adapted to be in fluid communication with the fluid pressure inlet line, the second spool valve being moveable between a closed position in which the second spool valve output is not in communication with the third spool valve input when the pressure at the second spool valve input does not exceed the predetermined first trigger pressure and an open position in which the second spool valve output is in fluid communication with the third spool valve input when the pressure at the second spool valve input exceeds the predetermined first trigger pressure.
An electric pump, comprising: a rotor rotationally supported by a housing at a rotation shaft; a stator positioned at an outer side in radial direction of the rotor and fixed to the housing; a pump portion for taking in and discharging fluid in response to a rotation of the rotor; and a can positioned in between the rotor and the stator for preventing the fluid in the pump portion from flowing into the stator, the can possessing conductivity; wherein the stator is grounded via the can, characterized in that the stator or the can is provided with a projection or a projected tooth portion such that the can and the stator are press-fitted. a rotor rotationally supported by a housing at a rotation shaft; a stator positioned at an outer side in radial direction of the rotor and fixed to the housing; a pump portion for taking in and discharging fluid in response to a rotation of the rotor; and a can positioned in between the rotor and the stator for preventing the fluid in the pump portion from flowing into the stator, the can possessing conductivity; wherein the stator is grounded via the can, characterized in that the stator or the can is provided with a projection or a projected tooth portion such that the can and the stator are press-fitted.
A device for transmitting a torque to a rotary kiln, including a drive shaft driven by a motor and having a drive opinion driving a gear rim connected to the rotary kiln, characterized in that the drive pinion drives the gear rim via an interposed transmission, characterized in that a gear wheel of the transmission is displaceable in the axial direction relatively to the drive pinion and engages with the drive pinion in a manner displaceable in the axial direction.
A top cap assembly for use with a capillary controlled gas sensor which has a recess, the top cap assembly, comprising: a top cap configured to be fitted into the recess of the sensor; a capillary located within the top cap; a bulk flow control assembly comprising: a bulk flow membrane; a bulk flow control disk located on top of the bulk flow membrane, wherein the bulk flow control disk comprises a gas impermeable material; and a layer of adhesive attaching the bulk flow membrane and the bulk flow control disk, wherein a gas flow path is formed through the bulk flow assembly from an exterior of the top cap assembly through the bulk flow membrane at a vertical edge, laterally through the bulk flow membrane, into a first capillary well, and into the capillary in the top cap; wherein the top cap comprises a raised boss, wherein the raised boss is attached to the bulk flow control assembly, wherein the raised boss comprises the first capillary well at the top of the capillary, and wherein the bulk flow control assembly covers the first capillary well; and a moat formed in the top cap and surrounding the raised boss, wherein the moat is operable to collect condensation formed on or around the bulk flow control assembly. a top cap configured to be fitted into the recess of the sensor; a capillary located within the top cap; a bulk flow control assembly comprising: a bulk flow membrane; a bulk flow control disk located on top of the bulk flow membrane, wherein the bulk flow control disk comprises a gas impermeable material; and a layer of adhesive attaching the bulk flow membrane and the bulk flow control disk, wherein a gas flow path is formed through the bulk flow assembly from an exterior of the top cap assembly through the bulk flow membrane at a vertical edge, laterally through the bulk flow membrane, into a first capillary well, and into the capillary in the top cap; a bulk flow membrane; a bulk flow control disk located on top of the bulk flow membrane, wherein the bulk flow control disk comprises a gas impermeable material; and a layer of adhesive attaching the bulk flow membrane and the bulk flow control disk, wherein a gas flow path is formed through the bulk flow assembly from an exterior of the top cap assembly through the bulk flow membrane at a vertical edge, laterally through the bulk flow membrane, into a first capillary well, and into the capillary in the top cap; wherein the top cap comprises a raised boss, wherein the raised boss is attached to the bulk flow control assembly, wherein the raised boss comprises the first capillary well at the top of the capillary, and wherein the bulk flow control assembly covers the first capillary well; and a moat formed in the top cap and surrounding the raised boss, wherein the moat is operable to collect condensation formed on or around the bulk flow control assembly.