mhurhangee/patent-ind-claim-en huggingface dataset:
Digital receiver for receiving a receive signal, the receive signal comprising data units (I, Q) quantized using a quantization rule, the digital receiver comprising: a receiver for receiving the receive signal; a controllable compressor for compressing the data units (I, Q) into a compressed representation, wherein a compressed reception data unit has less bits than the same reception data unit before compressing, wherein the compressor is configured for being controlled to operate in at least two different compression modes; a controllable time-de-interleaver for de-interleaving the compressed representation, the time-de-interleaver having associated therewith an interleaving size in data units, wherein the time-de-interleaver is configured for de-interleaving using a variable interleaving size in data units in reply to a de-interleaver control signal; and a controller for controlling the compressor and the time-de-interleaver so that a higher interleaving size is applied, when a compression mode resulting in a lower number of bits of at least two different numbers of bits provided by the controllable compressor is used. a receiver for receiving the receive signal; a controllable compressor for compressing the data units (I, Q) into a compressed representation, wherein a compressed reception data unit has less bits than the same reception data unit before compressing, wherein the compressor is configured for being controlled to operate in at least two different compression modes; a controllable time-de-interleaver for de-interleaving the compressed representation, the time-de-interleaver having associated therewith an interleaving size in data units, wherein the time-de-interleaver is configured for de-interleaving using a variable interleaving size in data units in reply to a de-interleaver control signal; and a controller for controlling the compressor and the time-de-interleaver so that a higher interleaving size is applied, when a compression mode resulting in a lower number of bits of at least two different numbers of bits provided by the controllable compressor is used.
Device for capturing an image of an object field on a human or animal body from outside the body, comprising a shaft and a lens unit arranged at a distal end of the shaft which unit comprises an observation lens for capturing the image of the object field, wherein the observation lens comprises a first and a second stereo channel each having an objective and at least one electronic image sensor , characterized in that the lens unit can be rotated relative to the device about an axis of rotation which is at least approximately parallel to a viewing direction of the observation lens, wherein the at least approximately parallel axis of rotation is inclined relative to the viewing direction by a maximum angle such that the point at which the at least approximately parallel axis of rotation penetrates the object field is contained in the stereoscopic fields recorded by the electronic image sensors of the first and second stereo channels independently of a rotation of the lens unit about the at least approximately parallel axis of rotation , and in that the observation lens comprises at least one filter which can be pivoted into and out of a beam path of the observation lens, wherein the at least one filter is pivotable about a pivot axis directed perpendicularly to the axis of rotation .
A casting core , comprising: a core body ; and a tip comb extending from a tip region of the core body and integrally formed with the core body , the tip comb comprising a first casting protrusion and a second casting protrusion , wherein the first casting protrusion and the second casting protrusion define an aperture having a tapered geometry, wherein the first casting protrusion has a first width (W3) at a proximal end and a second width (W4) at a distal end, characterised in that the second width (W4) of the first casting protrusion is greater than the first width (W3). a core body ; and a tip comb extending from a tip region of the core body and integrally formed with the core body , the tip comb comprising a first casting protrusion and a second casting protrusion , wherein the first casting protrusion and the second casting protrusion define an aperture having a tapered geometry, wherein the first casting protrusion has a first width (W3) at a proximal end and a second width (W4) at a distal end, characterised in that the second width (W4) of the first casting protrusion is greater than the first width (W3).
A stretcher loading assembly including a support member operatively attachable to an aircraft floor; an elongate rail member attached to the support member; an elongate traverse beam movably attached to the rail member; characterised in a trolley assembly movably attached to the traverse beam, the trolley assembly including lifting means movable between a lowered position and a raised position, the lifting means adapted to support a stretcher in the raised position; wherein the support member is at least twice as wide as the rail member, and wherein the stretcher loading assembly further includes a turntable member, the turntable member configured to be located between the support member and the aircraft floor so that when the support member is operatively attached to the aircraft floor, the turntable member enables the support member to be rotated relative to the aircraft floor. a support member operatively attachable to an aircraft floor; an elongate rail member attached to the support member; an elongate traverse beam movably attached to the rail member; characterised in a trolley assembly movably attached to the traverse beam, the trolley assembly including lifting means movable between a lowered position and a raised position, the lifting means adapted to support a stretcher in the raised position; wherein the support member is at least twice as wide as the rail member, and wherein the stretcher loading assembly further includes a turntable member, the turntable member configured to be located between the support member and the aircraft floor so that when the support member is operatively attached to the aircraft floor, the turntable member enables the support member to be rotated relative to the aircraft floor.
Electronic device comprising a polymer which contains at least one carbazole structural unit of the general formula (Ia) where Ar 1 , Ar 2 , Ar 3 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; m, o, independently of one another, are 0 or 1; and the dashed lines represent the linking in the polymer; and at least one arylamine structural unit of the general formula (II) and/or (III) where Ar 4 , Ar 5 , Ar 7 , Ar 8 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; Ar 6 is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type, or represents a group of the formula Ar 9 -Ar 9 , where Ar 9 in each case independently is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type or may be linked to one another; p is 1, 2 or 3; q is 0 or 1 and the dashed lines represent the linking in the polymer, characterised in that the polymer is present in the device as a constituent of the hole-transport or hole-injection layer. Ar 1 , Ar 2 , Ar 3 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; m, o, independently of one another, are 0 or 1; and the dashed lines represent the linking in the polymer; Ar 4 , Ar 5 , Ar 7 , Ar 8 in each case, independently of one another, are an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type; Ar 6 is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type, or represents a group of the formula Ar 9 -Ar 9 , where Ar 9 in each case independently is an aryl or heteroaryl group, which may be substituted by one or more radicals R of any desired type or may be linked to one another; p is 1, 2 or 3; q is 0 or 1 and
A system comprising: an integrally bladed rotor of a compressor section of a gas turbine engine , the integrally bladed rotor configured to rotate about an axis (A-A'); a hub rotor positioned aft of the integrally bladed rotor and configured to rotate about the axis (A-A'); and a seal ring configured to be positioned between the integrally bladed rotor and the hub rotor and configured to rotate about the axis (A-A') in response to the integrally bladed rotor and the hub rotor rotating about the axis (A-A'); characterised in that the seal ring includes a radial arm configured to be axially positioned between the integrally bladed rotor and the hub rotor , and is removably coupled to the integrally bladed rotor and the hub rotor via a compressive force applied to the seal ring by the integrally bladed rotor and the hub rotor in axial and radial directions. an integrally bladed rotor of a compressor section of a gas turbine engine , the integrally bladed rotor configured to rotate about an axis (A-A'); a hub rotor positioned aft of the integrally bladed rotor and configured to rotate about the axis (A-A'); and a seal ring configured to be positioned between the integrally bladed rotor and the hub rotor and configured to rotate about the axis (A-A') in response to the integrally bladed rotor and the hub rotor rotating about the axis (A-A'); characterised in that the seal ring includes a radial arm configured to be axially positioned between the integrally bladed rotor and the hub rotor , and is removably coupled to the integrally bladed rotor and the hub rotor via a compressive force applied to the seal ring by the integrally bladed rotor and the hub rotor in axial and radial directions.
Method for protecting against engassing of a heat transfer fluid in a cooling system of a heat engine, the system comprising a radiator and a regulation element opening an at least partial passage of the fluid towards the radiator from a first predetermined setpoint temperature (T1) reached by the fluid, the passage towards the radiator carrying out at least partial degassing of the fluid, characterized in that it is carried out, on the one hand, a counting of the duration of opening (CDO) of the passage to the radiator and, on the other hand, a counting of the total engassing duration (CDE) of the fluid as soon as the heat engine is rotating counted as long as a predetermined at least partial degassing considered to be sufficient has not been carried out during one or more consecutive runs (R, R+1) of the motor vehicle, a first duration of opening (D1) of the passage being predetermined as being sufficient to carry out said predetermined at least partial degassing, the opening (CDO) and gassing (CDO) duration counts being reset to zero (Ri) as soon as the first opening duration (D1) is reached.
A low protein yogurt composition having less than 2.9 % protein comprising: water, a mammalian or plant based milk, and a crosslinked waxy starch selected from the group consisting of STMP crosslinked and acetyl-substituted waxy corn starch and STMP crosslinked waxy tapioca starch, wherein the waxy starch is crosslinked with STMP as a phosphate-based crosslinking reagent for a time and at a temperature sufficient so that the resultant crosslinked waxy starch has a peak Brabender viscosity of from 600 to 1500 Brabender units, wherein the crosslinked waxy starch has a bound phosphorous content of from 0.003 weight percent to 0.016 weight percent, based on weight of the waxy starch and wherein the crosslinked and acetyl-substituted waxy starch has a bound acetyl group content of 2.0% to 6.0%, based on weight of the crosslinked and acetyl-substituted waxy starch, and wherein the crosslinked waxy starch is present in an amount of 0.5% to 10% by weight of the low protein yogurt composition, which is sufficient to add viscosity to the yogurt composition; and wherein the peak Brabender viscosity is the highest viscosity measured during the following time and temperature course: heat a 6% solids in water slurry, buffered at 6 pH, rapidly to 50° C, increase from 50° to 95° C at a rate of 8° C per minute, hold at 95° C form 5 minutes water, a mammalian or plant based milk, and a crosslinked waxy starch selected from the group consisting of STMP crosslinked and acetyl-substituted waxy corn starch and STMP crosslinked waxy tapioca starch, wherein the waxy starch is crosslinked with STMP as a phosphate-based crosslinking reagent for a time and at a temperature sufficient so that the resultant crosslinked waxy starch has a peak Brabender viscosity of from 600 to 1500 Brabender units, wherein the crosslinked waxy starch has a bound phosphorous content of from 0.003 weight percent to 0.016 weight percent, based on weight of the waxy starch and wherein the crosslinked and acetyl-substituted waxy starch has a bound acetyl group content of 2.0% to 6.0%, based on weight of the crosslinked and acetyl-substituted waxy starch, and wherein the crosslinked waxy starch is present in an amount of 0.5% to 10% by weight of the low protein yogurt composition, which is sufficient to add viscosity to the yogurt composition; and wherein the peak Brabender viscosity is the highest viscosity measured during the following time and temperature course: heat a 6% solids in water slurry, buffered at 6 pH, rapidly to 50° C, increase from 50° to 95° C at a rate of 8° C per minute, hold at 95° C form 5 minutes
Method for manufacturing a container from an unfinished form made of plastics material, in a mould provided with a wall defining a cavity that has the impression of the container , and with a mould bottom able to move with respect to the wall between a retracted position in which it extends set back from the cavity , and a deployed position in which it extends as a projection towards the inside of the cavity in order to form in the container a recessed reservation, which comprises: - an operation of introducing the unfinished form into the mould ; - a pre-blowing operation which consists in injecting a pressurized fluid into the unfinished form at a pressure known as the pre-blowing pressure, - a blowing operation, that follows the pre-blowing operation, consisting in injecting into the unfinished form a pressurized fluid at a pressure known as the blow-moulding pressure which is higher than the pre-blowing pressure; - a boxing operation, initiated before the blowing operation and which consists in moving the mobile mould bottom from its retracted position into its deployed position; this method being characterized in that the boxing operation is completed after the end of an increase in pressure of the unfinished form , at the end of which the pressure in the unfinished form remains substantially equal to the blow-moulding pressure. - an operation of introducing the unfinished form into the mould ; - a pre-blowing operation which consists in injecting a pressurized fluid into the unfinished form at a pressure known as the pre-blowing pressure, - a blowing operation, that follows the pre-blowing operation, consisting in injecting into the unfinished form a pressurized fluid at a pressure known as the blow-moulding pressure which is higher than the pre-blowing pressure; - a boxing operation, initiated before the blowing operation and which consists in moving the mobile mould bottom from its retracted position into its deployed position;
An energy harvesting device for converting a vertical force of a vertical motion to electricity, comprising: a free to rotate push magnet that is fixed by a hinge to a body of the energy harvesting device , a moving magnet that is designed to be vertically pushed from a first position to a second position when the vertical force (F) is applied on the moving magnet , a push back magnet that is fixed to the body of the harvesting device ; and a coil ; wherein when the vertical force (F) is applied on the moving magnet the moving magnet moves from said first position to said second position and when the moving magnet moves from said first position to said second position, a repulsive magnetic force of the moving magnet rotates the push magnet , wherein said rotation of the push magnet causes current in the coil ; wherein the push back magnet is designed to displace the moving magnet from said second position to said first position when the vertical force (F) is stopped to be applied on the moving magnet ; and wherein the push back magnet is designed to rotate backward the push magnet while the moving magnet is displaced to said first position. a free to rotate push magnet that is fixed by a hinge to a body of the energy harvesting device , a moving magnet that is designed to be vertically pushed from a first position to a second position when the vertical force (F) is applied on the moving magnet , a push back magnet that is fixed to the body of the harvesting device ; and a coil ; wherein when the vertical force (F) is applied on the moving magnet the moving magnet moves from said first position to said second position and when the moving magnet moves from said first position to said second position, a repulsive magnetic force of the moving magnet rotates the push magnet , wherein said rotation of the push magnet causes current in the coil ; wherein the push back magnet is designed to displace the moving magnet from said second position to said first position when the vertical force (F) is stopped to be applied on the moving magnet ; and wherein the push back magnet is designed to rotate backward the push magnet while the moving magnet is displaced to said first position.
A monitoring arrangement for a plant with a controller controlling the plant and with an optical sensor having an evaluation unit and a sensor component, the controller and the optical sensor being connected via a serial transmission path , characterized in that the optical sensor can be configured by means of the controller , and in that the optical sensor is set up for this purpose, in that , depending on the configuration in the evaluation unit of the optical sensor , preprocessing of individual sensor information of the sensor component is carried out and partial results are generated therefrom, and in that these partial results are transmitted to the controller for further processing.
A process for the alkaline electrolysis of water with an electrolyte in an electrolyzer comprising at least an electrolytic cell, a cathodic gas separator , an anodic gas separator , a first liquid reservoir for the electrolyte and a second liquid reservoir for the electrolyte that is separate from the first liquid reservoir, wherein the electrolytic cell comprises an anode half-cell having an anode, a cathode half-cell having a cathode, and a separator arranged between the anode half-cell and cathode half-cell , wherein a current is applied to the electrolyzer filled with the electrolyte so as to carry out the electrolysis, wherein electrolyte is supplied from the first liquid reservoir to the anode half-cell and the anolyte flowing out of the anode half-cell is supplied to the anodic gas separator , in which the gas is separated from the anolyte, and wherein electrolyte is supplied from the second liquid reservoir to the cathode half-cell and the catholyte flowing out of the cathode half-cell is supplied to the cathodic gas separator , in which the gas is separated from the catholyte, characterized in that the gas-stripped anolyte from the anodic gas separator is returned to the second liquid reservoir and the gas-stripped catholyte from the cathodic gas separator is returned to the first liquid reservoir . wherein the electrolytic cell comprises an anode half-cell having an anode, a cathode half-cell having a cathode, and a separator arranged between the anode half-cell and cathode half-cell , wherein a current is applied to the electrolyzer filled with the electrolyte so as to carry out the electrolysis, wherein electrolyte is supplied from the first liquid reservoir to the anode half-cell and the anolyte flowing out of the anode half-cell is supplied to the anodic gas separator , in which the gas is separated from the anolyte, and wherein electrolyte is supplied from the second liquid reservoir to the cathode half-cell and the catholyte flowing out of the cathode half-cell is supplied to the cathodic gas separator , in which the gas is separated from the catholyte, characterized in that the gas-stripped anolyte from the anodic gas separator is returned to the second liquid reservoir and the gas-stripped catholyte from the cathodic gas separator is returned to the first liquid reservoir .
Computer-aided method for assigning assemblies (LP1 - LP6) to component fitting lines (BL1 - BL2) for fitting the assemblies (LP1 - LP6) with components (B1 - B6), wherein an expected production time is ascertained for each assembly type of the assemblies (LP1 - LP6) to be fitted with components and each component fitting line (BL1 - BL2) taking into consideration the respective cycle time for the assembly type on the component fitting line (BL1 - BL2), and the expected number of items to be produced per assembly type, wherein the actual number of items to be produced arises according to a previously determinable probability distribution, wherein the possible assignments of assemblies (LP1 - LP6) to component fitting lines (BL1 - BL2) are limited by the existing infracture and/or by user-defined presets, and the assignment of the assemblies (LP1 - LP6) to the component fitting lines (BL1 - BL2) is computed by means of an optimization method, wherein the assignment is computed such that for the probability distributions with respect to the sum of the expected production times per component fitting line (BL1; BL2) that result from the cited probability distributions for the numbers of items, the differences from the respective expected value of these resultant probability distributions are minimized, wherein a difference from the sum of the expected production times of a component fitting line is described as a variance thereof, which can be determined per component fitting line by the sum over all assembly types assigned to the component fitting line, from the product of the squared difference from the expected number of items of an assembly type within a period of time and the associated values of the resultant probability distributions and with multiplication by the squared cycle time.
A method of producing a seat element for a motor vehicle comprising at least the following successive steps: depositing at least one paint layer in the bottom of a mold ; successively depositing an unexpanded foam layer and an expanded foam layer in the mold; and closing the mold . depositing at least one paint layer in the bottom of a mold ; successively depositing an unexpanded foam layer and an expanded foam layer in the mold; and closing the mold .
Passenger rail vehicle , comprising at least one radiation facility for radio waves and at least one additional space which is separate from the interior space of the passenger rail vehicle and is configured for accommodating passengers, wherein this additional space is delimited in the direction of the interior space of the passenger rail vehicle by walls with a metal layer , characterised in that at least one recess is arranged in these walls which delimit the additional space, which recess is filled with material which is permeable to radio waves.