mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a maximum signal level output to headphones of a wireless device, comprising: determining an impedance of the headphones, characterised in that the method further includes: accessing from memory in the wireless device a carrier specific maximum signal level for headphones having the impedance, wherein the carrier specific maximum signal level is a maximum signal level prescribed for a location of the wireless device and for headphones having the impedance; and, adjusting an audio amplifier of the wireless device coupled to the headphones to restrict the maximum signal level output to the headphones to the carrier specific maximum signal level; wherein the memory stores impedances, locations, and corresponding carrier specific maximum signal levels. determining an impedance of the headphones, characterised in that the method further includes: accessing from memory in the wireless device a carrier specific maximum signal level for headphones having the impedance, wherein the carrier specific maximum signal level is a maximum signal level prescribed for a location of the wireless device and for headphones having the impedance; and, adjusting an audio amplifier of the wireless device coupled to the headphones to restrict the maximum signal level output to the headphones to the carrier specific maximum signal level; accessing from memory in the wireless device a carrier specific maximum signal level for headphones having the impedance, wherein the carrier specific maximum signal level is a maximum signal level prescribed for a location of the wireless device and for headphones having the impedance; and, adjusting an audio amplifier of the wireless device coupled to the headphones to restrict the maximum signal level output to the headphones to the carrier specific maximum signal level; wherein the memory stores impedances, locations, and corresponding carrier specific maximum signal levels.
Double-track multiple-axle motor vehicle having at least two fuel tanks (1, 2), in which a fuel for generating drive energy for a vehicle drive unit is storable at high pressure in the order of magnitude of 300 bar and more, each tank (1, 2) including a safety valve device (13, 23) having a temperature-sensitive element which monitors only a partial region of the tank surface and allows at least a partial quantity of the stored fuel to escape from the particular tank (1, 2) at higher temperatures, which occur for example in the case of a fire, characterised in that the temperature-sensitive elements of at least two tanks (1, 2) are arranged such that the spacing between a left-side wheel of that vehicle axle, in the vicinity of which the at least two fuel tanks (1, 2) are arranged in the vehicle, and the temperature-sensitive element which lies closest to this wheel does not differ significantly from the spacing of the other one of these two temperature-sensitive elements from the right-side wheel of this axle.
A method for beating and rolling a fermented dough belt between rolling members (10, 20) to release surplus fermentation gas from the surface of the dough belt, comprising beating and rolling the dough belt, which is conveyed on a conveying and rolling-roller, with a plurality of beating or striking rolling rollers characterised in that said plurality of beating or striking rollers sequentially move upstream from downstream in relation to the dough belt, and thus in the opposite direction to the direction of motion of the dough belt, wherein the plurality of the rolling rollers push back bubbles, which include the fermentation gas, and transfer the bubbles to the upstream side of the dough belt by the movement of the rolling rollers so that the fermentation gas can be discharged at the upstream side of the rolling rollers.
A Magnetic Particle Imaging system comprising: a magnet configured to generate a magnetic field comprising: a field-free line within the magnetic field having an axis and a center; and a flux return integrated with the magnet configured such that a first magnetic flux path at approximately the center of the field-free line has a first reluctance and a second magnetic flux path distal from the center of the field-free line has a second reluctance, and the second reluctance is lower than the first reluctance, the flux return comprising a pole piece having an end, the end including a step, wherein the pole piece passes through a center of the magnet. a magnet configured to generate a magnetic field comprising: a field-free line within the magnetic field having an axis and a center; and a flux return integrated with the magnet configured such that a first magnetic flux path at approximately the center of the field-free line has a first reluctance and a second magnetic flux path distal from the center of the field-free line has a second reluctance, and the second reluctance is lower than the first reluctance, the flux return comprising a pole piece having an end, the end including a step, wherein the pole piece passes through a center of the magnet.
Cutting/mowing, conditioning, windrowing machine, comprising a cutting head provided with: a cardan connection to the power takeoff of the tractor or harvester, at least one cutting unit (B1, B2, B3) with rotary knives and at least one auger (C1, C2, C3), wherein said cutting head is divided into at least two sections (A1, A2, A3) hinged to each other, each with a corresponding cutting unit (B1, B2, B3) and auger (C1, C2, C3), wherein at least one section is anchored to the tractor or the harvester and comprises at least one cardan connection, and wherein at least one section is moveable (A2, A3), being suited to rotate substantially by 180° with respect to said fixed section from an open operating position, in which all of said sections (A1, A2, A3) are substantially aligned in a transversal direction with respect to the advance direction of the machine, to a closed folded position, in which at least one of said moveable sections (A2, A3) is rotated with respect to the other, in order to reduce the overall width of the cutting head as said moveable section (A2, A3) substantially overlaps said fixed section, wherein said segment of the cutting unit (B1, B2, B3) of each section (A1, A2, A3) in turn comprises: • a plurality of rotary knives mounted on discs that are aligned on a segment of a bar constrained to the frame (F1, F2, F3) of the corresponding section; • a train of gears suited to cause the simultaneous rotation of said knives; characterized in that • said bar, which is substantially L-shaped and comprises a main portion on which said discs and said gears are mounted, arranged horizontally and crosswise with respect to the advance direction of the machine, and a connecting portion provided with the members for transmitting motion among the various sections, connected to said gears and to the gear box, as well as the drive shaft that is suited to be connected to the shafts (T, TA1, TA2, TA3) of the adjacent sections through connection members. • a plurality of rotary knives mounted on discs that are aligned on a segment of a bar constrained to the frame (F1, F2, F3) of the corresponding section; • a train of gears suited to cause the simultaneous rotation of said knives; characterized in that • said bar, which is substantially L-shaped and comprises a main portion on which said discs and said gears are mounted, arranged horizontally and crosswise with respect to the advance direction of the machine, and a connecting portion provided with the members for transmitting motion among the various sections, connected to said gears and to the gear box, as well as the drive shaft that is suited to be connected to the shafts (T, TA1, TA2, TA3) of the adjacent sections through connection members.
Assembly comprising a system for closing and/or opening the section of a flexible tubular body, comprising two elements of identical shape, each of said elements consisting mainly of a flexible filiform part (2, 3) having a guide piece (4, 5) towards one of its ends, the guide piece of the first element being passed through by the filiform part of the second element and vice versa so as to form a ring of variable shape, a bag comprising a flexible opening of tubular shape surrounded by said ring, and two flexible sheaths (11, 12) through which each flexible filiform part passes.
A flow measurement assembly, comprising: a coupler maintaining a magnet and a sensor spaced from the magnet; and a flow channel positionable between the magnet and the sensor, the flow channel comprising: a housing having an inlet, an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, wherein the sensor is configured to detect a frequency of a change within a magnetic field as the ferrous body travels within the flow conduit between the magnet and the sensor. a coupler maintaining a magnet and a sensor spaced from the magnet; and a flow channel positionable between the magnet and the sensor, the flow channel comprising: a housing having an inlet, an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, a housing having an inlet, an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, wherein the sensor is configured to detect a frequency of a change within a magnetic field as the ferrous body travels within the flow conduit between the magnet and the sensor.
An anti-glare film comprising: a laminate comprising a light transmitting substrate, and a hard coating layer comprising a binder resin and inorganic particles and organic particles dispersed in the binder resin, wherein a difference (Ha - Hi) between a total haze(Ha) and an internal haze(Hi) of the laminate is 5 to 15%, and in the IR spectrum of the laminate, a rate(I B / I A) of the peak area (I B) existing between 1500 cm -1 to 1570 cm -1, to the peak area (I A) existing between 1690 cm -1 to 1745 cm -1 is 0.1 to 0.6, and a transmission diffusion distribution of the laminate according to the following Formula 1 is greater than 1% and less than 10%: transmission diffusion distribution = B / A × 100 wherein A is transmission intensity of light transmitted in the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate, and B is transmission diffusion intensity of light transmitted at +1° or -1°based on the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate. a laminate comprising a light transmitting substrate, and a hard coating layer comprising a binder resin and inorganic particles and organic particles dispersed in the binder resin, wherein a difference (Ha - Hi) between a total haze(Ha) and an internal haze(Hi) of the laminate is 5 to 15%, and in the IR spectrum of the laminate, a rate(I B / I A) of the peak area (I B) existing between 1500 cm -1 to 1570 cm -1, to the peak area (I A) existing between 1690 cm -1 to 1745 cm -1 is 0.1 to 0.6, and a transmission diffusion distribution of the laminate according to the following Formula 1 is greater than 1% and less than 10%: transmission diffusion distribution = B / A × 100 wherein A is transmission intensity of light transmitted in the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate, and B is transmission diffusion intensity of light transmitted at +1° or -1°based on the normal direction of the hard coating layer, after irradiating light in the normal direction of the light transmitting substrate.
A synthetic quartz glass lid precursor comprising a synthetic quartz glass substrate and a metal film or metal compound film on a major surface thereof, the metal film or metal compound film containing at least 65% by weight of silver, at least 1% by weight of bismuth, and 0.5% by weight of at least one element selected from phosphorus, antimony, tin and indium, the major surface being a surface of the lid to abut against a receptacle.
Process for preparing a powdered composition, said process comprising the steps of: a) adding a solution of a water-soluble polymer to a Pickering emulsion, wherein the Pickering emulsion comprises (i) a non-encapsulated oil phase comprising a hydrophobic active ingredient, preferably a perfume or a flavour; (ii) solid particles that are insoluble in water; and (iii) water; b) adding a core-shell microcapsule slurry to the emulsion of step a), said slurry comprising microcapsules having a polymeric shell and a core comprising encapsulated oil; and c) drying the emulsion of step b) to obtain a powdered composition. a) adding a solution of a water-soluble polymer to a Pickering emulsion, wherein the Pickering emulsion comprises (i) a non-encapsulated oil phase comprising a hydrophobic active ingredient, preferably a perfume or a flavour; (ii) solid particles that are insoluble in water; and (iii) water; (i) a non-encapsulated oil phase comprising a hydrophobic active ingredient, preferably a perfume or a flavour; (ii) solid particles that are insoluble in water; and (iii) water; b) adding a core-shell microcapsule slurry to the emulsion of step a), said slurry comprising microcapsules having a polymeric shell and a core comprising encapsulated oil; and c) drying the emulsion of step b) to obtain a powdered composition.
A combination yarn comprising a first single yarn and a second single yarn, wherein the first single yarn and the second single yarn are linked to each other, wherein the first single yarn comprises at least 60% polyethylene terephthalate, wherein the second single yarn comprises at least 60% polytrimethylene terephthalate, and wherein at least one of the first single yarn and the second single yarn includes one or more additives, such that the color strength of the at least one of the first single yarn and the second single yarn is increased when compared to the same first single yarn and/or the same second single yarn which does not include the one or more additives, and wherein the one or more additives includes polybutylene terephthalate, at least one ester modifier, or combinations thereof. wherein the first single yarn and the second single yarn are linked to each other, wherein the first single yarn comprises at least 60% polyethylene terephthalate, wherein the second single yarn comprises at least 60% polytrimethylene terephthalate, and wherein at least one of the first single yarn and the second single yarn includes one or more additives, such that the color strength of the at least one of the first single yarn and the second single yarn is increased when compared to the same first single yarn and/or the same second single yarn which does not include the one or more additives, and wherein the one or more additives includes polybutylene terephthalate, at least one ester modifier, or combinations thereof.
An agricultural vehicle comprising a frame and a first shaft rotatably connected to the frame via a first and a second support bearing (3, 4), the agricultural vehicle further comprising a second shaft rotatably positioned in line with the first shaft and connected to the first shaft via a coupling, and the second shaft being further connected to the frame via a third support bearing, characterized in that the coupling comprising a first connection and a second connection, the first connection connecting the first shaft to the second shaft via a fourth bearing adapted to support a radial load and to accommodate an axial rotation and an angular misalignment of one shaft with respect to the other shaft, the second connection connecting the first shaft to the second shaft via flange elements (27, 18) which are interconnected via an intermediary element adapted to transmit a torque and to accommodate a misalignment of one shaft with respect to the other shaft.
A smoke damper comprising a substantially rectangular frame installable in a ventilation air duct, the frame having pivotally mounted thereon at least one rotatable slat, the slat(s) being rotatable with the help of a separate mechanism by about 90° between an open position and a closed position, the slat having a first long edge and a second long edge (2") as the opposite slat edge relative to the first edge, and the slat further having attached thereto an elastic seal and an intumescent sealant, whereby the elastic seal is attached at least onto the first long edge of the slat so as to extend substantially over the entire length of the slat edge, and whereby the intumescent sealant is attached at least onto the second edge (2") of the slat so as to extend substantially over the entire length of the slat edge, characterized in that the intumescent sealant is covered by a continuous-section strip of fire-resistant material capable of moving outward from said long slat edge under the swelling action of said sealant, and that the intumescent sealant is seated in a groove made onto the second long edge (2") and having a continuous-section metallic strip located therein so as to cover the intumescent sealant., and that the cross section of the strip is substantially V-shaped and that the strip is located onto the intumescent sealant material into the groove in such a position that the V-shaped corner edge of the strip is pointing outward from the groove, whereby the strip 7 remains firmly clamped in place by virtue of its V-shape.
A ram assembly for a hydraulic tool, the ram assembly comprising: a ram piston having a ram cavity at an end of the ram piston, the ram piston configured to receive a hydraulic pressure reaction force; and an overload assembly disposed in the ram cavity, the overload assembly comprising: a burst disc positioned at a first end of the ram cavity; a lock nut positioned at a second end of the ram cavity, the second end opposite the first end; characterised in that: the lock nut is configured to create a supporting force, and the ram assembly further comprises: a spacer positioned between the burst disc and the lock nut and configured to transfer the supporting force applied by the lock nut to the burst disc, wherein the hydraulic pressure reaction force and the supporting force are additive. a ram piston having a ram cavity at an end of the ram piston, the ram piston configured to receive a hydraulic pressure reaction force; and an overload assembly disposed in the ram cavity, the overload assembly comprising: a burst disc positioned at a first end of the ram cavity; a lock nut positioned at a second end of the ram cavity, the second end opposite the first end; a burst disc positioned at a first end of the ram cavity; a lock nut positioned at a second end of the ram cavity, the second end opposite the first end;
Transport chute suitable for use as storage facility for goods which can be disposed one above the other, in particular for packages and items of luggage; comprising: a) a slide section having an inclined sliding surface with a direction of fall along the sliding surface; b) wherein the aforementioned slide section is interrupted by means of at least one interruption, for example, a step, such that the sliding surface is divided into at least one upper sliding surface and one lower sliding surface; c) wherein the aforementioned interruption is designed to facilitate the formation of at least two layers, disposed one above the other, of goods beneath the interruption; d) wherein at least the lower sliding surface further comprises at least one drivable and controllable drive means for transporting the goods on which the goods of the bottom layer can rest at least partially for their transportation, and e) a control device for controlling the drive means, characterised in that the drive means can be driven and controlled contrary to the direction of fall, and that the control device controls the drive means such that the goods are then allowed to pass along the sliding surface in the direction of fall and the goods are transported by means of the drive means contrary to the direction of fall. a) a slide section having an inclined sliding surface with a direction of fall along the sliding surface; b) wherein the aforementioned slide section is interrupted by means of at least one interruption, for example, a step, such that the sliding surface is divided into at least one upper sliding surface and one lower sliding surface; c) wherein the aforementioned interruption is designed to facilitate the formation of at least two layers, disposed one above the other, of goods beneath the interruption; d) wherein at least the lower sliding surface further comprises at least one drivable and controllable drive means for transporting the goods on which the goods of the bottom layer can rest at least partially for their transportation, and e) a control device for controlling the drive means,
A method for operating a refrigeration system for a container for refrigerating chilled cargo, the refrigeration system including a compressor, a condenser, and an evaporator connected in series, an evaporator fan associated with the evaporator, and a heater, the refrigeration system operable to discharge supply air to the container and to receive return air from the container; the method comprising: determining the temperature of the supply air; determining the temperature of the return air; determining one of a requirement for heating and a requirement for cooling based on the temperature of the return air (T RA) and the temperature of the supply air (T SA); activating the evaporator fan when a requirement for heating is determined and increasing the speed of the evaporator fan when increased heating is determined; and activating the compressor and the evaporator fan when a requirement for cooling is determined and increasing the power supplied to the compressor and maintaining the evaporator fan at a low first speed when increased cooling is determined.
A method for performing self-calibration of a transmitter, comprising: transmitting respective wireless signals at a number of different frequencies and different power levels; measuring a signal power of each wireless signal at an output of a power amplifier with an internal detector to obtain a set of internal power detector values; receiving from an external device data indicative of the signal power measured by the external device for each respective wireless signal to obtain external power measurements; correlating the predetermined set of internal power detector values with the corresponding external power measurements; and interpolating a desired power detector value for at least one operating point based on the correlation results, the operating point comprising a frequency and a desired output power, self-calibrating the transmitter using the desired power detector value. transmitting respective wireless signals at a number of different frequencies and different power levels; measuring a signal power of each wireless signal at an output of a power amplifier with an internal detector to obtain a set of internal power detector values; receiving from an external device data indicative of the signal power measured by the external device for each respective wireless signal to obtain external power measurements; correlating the predetermined set of internal power detector values with the corresponding external power measurements; and interpolating a desired power detector value for at least one operating point based on the correlation results, the operating point comprising a frequency and a desired output power, self-calibrating the transmitter using the desired power detector value.