mhurhangee/patent-ind-claim-en huggingface dataset:
Device for dispensing a free-flowing product for or in a beverage preparation machine, having a storage container for storing the pourable product, having a metering device for metering the free-flowing product that is stored in the storage container , having a movable dispensing element for dispensing the free-flowing product that is metered by the metering device into a beverage container , wherein the dispensing element can be moved from a dispensing position (A) into a waiting position or rest position (R) and back, and wherein the waiting position or rest position (R) is positioned offset at least in the horizontal direction with respect to the dispensing position (A), characterised by a movable positioning element , the position change of which causes a change in the position of the movable dispensing element , wherein the positioning element comprises a dispensing element that is used so as to dispense a liquid. having a storage container for storing the pourable product, having a metering device for metering the free-flowing product that is stored in the storage container , having a movable dispensing element for dispensing the free-flowing product that is metered by the metering device into a beverage container , wherein the dispensing element can be moved from a dispensing position (A) into a waiting position or rest position (R) and back, and wherein the waiting position or rest position (R) is positioned offset at least in the horizontal direction with respect to the dispensing position (A), characterised by a movable positioning element , the position change of which causes a change in the position of the movable dispensing element , wherein the positioning element comprises a dispensing element that is used so as to dispense a liquid.
A method of producing a monolithic body from a porous matrix, comprising: (i) providing a porous matrix having interstitial spaces and comprising at least a first reactant; (ii) contacting the porous matrix with an infiltrating medium that carries at least a second reactant; (iii) allowing the infiltrating medium, especially a fluid, to infiltrate at least a portion of the interstitial spaces of the porous matrix under conditions that promote a reaction between the at least first reactant and the at least second reactant to provide at least a first product, a reaction temperature of less than about 250 °C and a reaction pressure of less than about 482.6 MPa; and (iv) allowing the at least first product to form and fill at least a portion of the interstitial spaces of the porous matrix, thereby producing a monolithic body having an interconnecting microstructure, wherein the first product does not comprise barium titanate, and wherein step (iv) further comprises aging the monolithic body. (i) providing a porous matrix having interstitial spaces and comprising at least a first reactant; (ii) contacting the porous matrix with an infiltrating medium that carries at least a second reactant; (iii) allowing the infiltrating medium, especially a fluid, to infiltrate at least a portion of the interstitial spaces of the porous matrix under conditions that promote a reaction between the at least first reactant and the at least second reactant to provide at least a first product, a reaction temperature of less than about 250 °C and a reaction pressure of less than about 482.6 MPa; and (iv) allowing the at least first product to form and fill at least a portion of the interstitial spaces of the porous matrix, thereby producing a monolithic body having an interconnecting microstructure, wherein the first product does not comprise barium titanate, and
A method of decoding a bitstream of video compressed data representing a group of coding units, the method using an adaptive reconstruction level process and comprising decoding the compressed data to obtain a plurality of quantized transform coefficients; extracting offset data from the bitstream, wherein the offset data is associated with a quantization index associated with a respective sub-part of a partitioned data space containing data of the group of coding units; extracting average offset data from the bitstream, wherein the average offset data is associated with two or more other quantization indices associated with respective sub-parts of the partitioned video data space; calculating a reconstruction level for the quantization index by adjusting a predetermined reconstruction level using the offset data; calculating a respective reconstruction level for each of the two or more other quantization indices by adjusting respective predefined reconstruction levels using the average offset data; and dequantizing each quantized transform coefficient that corresponds to a respective quantization index to generate a transform coefficient using that quantization index's respective calculated reconstruction level, and characterised by further comprising: checking a flag in a slice header or a frame header of the group of coding units to determine whether the total number of nonzero coefficients or the number of coding units, or both, are used to control the offset data used in the adaptive reconstruction levels for the group of coding units.
Method for providing a ballasting proposal for an agricultural tractor, in which method a target tractive power specific to a selected implement is calculated by multiplying a target tractive force that is required for operating the selected implement by the specific cultivation speed for each of the axles of the agricultural tractor , taking into account a specific soil cultivation speed of the selected implement , wherein, depending on the calculated target tractive power on the basis of the tractive capacity of associated tyres, a contact force that is required for transmitting a drive power corresponding to the calculated target tractive power and, from this contact force, a target value for an axle load, which target value is to be maintained on the axle in question, are derived for each of the axles of the agricultural tractor and the target value is compared with an actual value that is ascertained for the axle load, wherein, based on the comparison result, ballasting for each axle that is required for maintaining the target value is calculated and output in the form of an associated ballasting proposal, wherein a starting value that is characteristic of the respectively selected implement is defined for the required target tractive force, the starting value being modified in accordance with information relating to the soil condition and/or topographical properties including a topographical profile.
A transmitter system , comprising: a voltage-controlled oscillator, VCO , having a first inductor coupled with a VCO output, such that a VCO signal generated at the VCO output oscillates at a VCO period in accordance with oscillation of the first inductor ; a power amplifier, PA , having a second inductor coupled with a PA input, such that the second inductor oscillates at a PA period in accordance with oscillation of a PA signal received at the PA input; and a signal path coupled between the VCO output and the PA input, whereby the PA period is substantially the VCO period, the signal path comprising: a set of signal path components introducing a first signal delay between the VCO output and the PA input; and a coupling delay matching, CDM, subsystem configured to generate a second signal delay between the VCO output and the PA input, the second signal delay determined such that introducing the first signal delay and the second signal delay into the signal path causes the PA signal to be phase-shifted with respect to the VCO signal by an amount corresponding to an integer multiple of the VCO period. a voltage-controlled oscillator, VCO , having a first inductor coupled with a VCO output, such that a VCO signal generated at the VCO output oscillates at a VCO period in accordance with oscillation of the first inductor ; a power amplifier, PA , having a second inductor coupled with a PA input, such that the second inductor oscillates at a PA period in accordance with oscillation of a PA signal received at the PA input; and a signal path coupled between the VCO output and the PA input, whereby the PA period is substantially the VCO period, the signal path comprising: a set of signal path components introducing a first signal delay between the VCO output and the PA input; and a coupling delay matching, CDM, subsystem configured to generate a second signal delay between the VCO output and the PA input, the second signal delay determined such that introducing the first signal delay and the second signal delay into the signal path causes the PA signal to be phase-shifted with respect to the VCO signal by an amount corresponding to an integer multiple of the VCO period. a set of signal path components introducing a first signal delay between the VCO output and the PA input; and a coupling delay matching, CDM, subsystem configured to generate a second signal delay between the VCO output and the PA input, the second signal delay determined such that introducing the first signal delay and the second signal delay into the signal path causes the PA signal to be phase-shifted with respect to the VCO signal by an amount corresponding to an integer multiple of the VCO period.
Device for monitoring tyre pressure of a vehicle system comprising an agricultural tractor and an agricultural implement, having at least one vehicle tyre , which communicates with a tyre inflation system for adapting a tyre internal pressure, and a control unit , which calculates a target value to be maintained for the tyre internal pressure in accordance with at least one external control variable, the control unit adapting the calculated target value as a function of an operating state classification derived from operating state variables of the vehicle system, the control unit determining a geo-position of the vehicle system that is correlated with the derived operating state classification and storing the latter together with the operating state classification in a memory unit in order to retrieve the associated operating state classification from the memory unit for the purpose of anticipatory adaptation of the target value of the tyre internal pressure when a renewed approach of the vehicle system to the stored a geo-position is detected, characterized in that the operating state variables reproduce characteristic control valve settings or sequences for the performance of specific hydraulic working functions of the agricultural implement.
Pressure test assembly comprising a plug and a tubular component, the plug being adapted to the tubular component, the tubular component having a male threaded element at a free end , such that the male threaded element has a male screw thread and a sealing surface , the plug having a compatible screw thread compatible with the male screw thread, an inner annular groove and a sealing ring held in said groove such that the sealing ring is compressed radially between an outer periphery of the male threaded element and a bottom of said inner annular groove, said plug being characterized in that the bottom of the groove has an inclination identical to that of a lip of the tubular component that is situated between a frustoconical portion bearing the sealing surface and the free end , this lip having an inclination less than that of the frustoconical portion.
Method for creating a print image on an object to be printed on wherein a first inkjet printing unit (D1) having a first field of inkjet nozzles (F1) and a second inkjet printing unit (D2) having a second field of inkjet nozzles (F2) are used to print on the object and a conveying unit is used to convey the object in a conveying direction , wherein the first field (F1) and the second field (F2) extend in a direction perpendicular to the conveying direction and partially overlap in a region of overlap (L), the method comprising the steps of - printing a first section (A1) of the print image at a first position (P1) using the first printing unit (D1), - conveying the object from the first position (P1) to a second position (P2) that is spaced apart from the first position (P1) in the conveying direction and - printing a second section (A2) of the print image at a second position (P2) and using the second printing unit (D2), - measuring a first position value (H1) of the first object at the first position (P1) and a second position value (H2) of the object at the second position (P2), wherein the first position value (H1) and the second position value (H2) are measured in a direction perpendicular to the conveying direction , - determining a position change (Delta_H) of the object in a direction perpendicular to the conveying direction and using the first and second position values (H1, H2), and - compensating for the position change (Delta H) when the second section (A2) is printed by seamlessly merging the second section (A2) with the first section (A1) using as many nozzles within the region of overlap (L) of the second field (F2) as corresponds to the position change and a complementary number of nozzles outside the region of overlap (L) of the second field (F2). - printing a first section (A1) of the print image at a first position (P1) using the first printing unit (D1), - conveying the object from the first position (P1) to a second position (P2) that is spaced apart from the first position (P1) in the conveying direction and - printing a second section (A2) of the print image at a second position (P2) and using the second printing unit (D2), - measuring a first position value (H1) of the first object at the first position (P1) and a second position value (H2) of the object at the second position (P2), wherein the first position value (H1) and the second position value (H2) are measured in a direction perpendicular to the conveying direction , - determining a position change (Delta_H) of the object in a direction perpendicular to the conveying direction and using the first and second position values (H1, H2), and - compensating for the position change (Delta H) when the second section (A2) is printed by seamlessly merging the second section (A2) with the first section (A1) using as many nozzles within the region of overlap (L) of the second field (F2) as corresponds to the position change and a complementary number of nozzles outside the region of overlap (L) of the second field (F2).
Ultrasonic microphone , wherein the ultrasonic microphone comprises a membrane , a first sound transducer element as receiver transducer in the form of a piezocomposite, a housing and a device for carrying out a self-test, characterized in that device for carrying out a self-test comprises a further sound transducer element as test signal generator in the form of a piezocomposite; wherein the one further sound transducer element is configured to generate structure-borne sound that propagates through all components to be tested, but at least the membrane, and the connections thereof in the ultrasonic microphone and reaches the first sound transducer element; wherein the one further sound transducer element is part of the piezocomposite of the first sound transducer element or is arranged as a separate piezocomposite in the housing ; and the first sound transducer element and the device for carrying out the self-test are contained together in the housing of the ultrasonic microphone .
A trim component for a vehicle interior providing an airbag door cover and comprising: (a) an instrument panel substrate ; (b) a cover comprising an instrument panel skin layer and a support layer coupled to the skin layer ; and (c) a foam layer between the cover and the instrument panel substrate ; wherein the cover comprises a skin weakening line extending through an entire thickness of the support layer and a part of a thickness of the skin layer ; wherein the support layer comprises at least one of (a) a polyurethane coating; (b) two-component reactive aliphatic polyurethane; (c) two-component reactive aromatic polyurethane; (d) polyurea; (e) acrylic elastomer; (f) aromatic thermoplastic polyurethane (TPU); (g) aliphatic thermoplastic polyurethane (TPU); (h) thermoplastic polyolefin (TPO); and wherein the skin layer is molded from at least one of (a) a slush-molding powder; (b) polyvinyl chloride; (c) thermoplastic polyurethane (TPU); (d) thermoplastic polyolefin (TPO). (a) an instrument panel substrate ; (b) a cover comprising an instrument panel skin layer and a support layer coupled to the skin layer ; and (c) a foam layer between the cover and the instrument panel substrate ;
A toughened epoxy resin composition comprising: an end-capped polyalkylene oxide (A) having a number average molecular weight of 1500 to 5000, measured as indicated in the description, an epoxy resin (B), an epoxy curing agent (C), and a core shell polymer (D), wherein 40% or more of ends in total ends of the end-capped polyalkylene oxide (A) are capped with at least one group selected from the group consisting of an alkyl group, an allyl group, and an aryl group, a weight ratio of the end-capped polyalkylene oxide (A) to the core shell polymer (D) is 10/90 to 90/10, the core shell polymer (D) has a core layer selected from the group consisting of diene rubber, (meth)acrylate rubber, organosiloxane rubber, styrene polymer, and (meth)acrylate polymer, a core content of the core shell polymer is 70 to 95% by weight per 100 % by weight of the core shell polymer (D). an end-capped polyalkylene oxide (A) having a number average molecular weight of 1500 to 5000, measured as indicated in the description, an epoxy resin (B), an epoxy curing agent (C), and a core shell polymer (D), wherein 40% or more of ends in total ends of the end-capped polyalkylene oxide (A) are capped with at least one group selected from the group consisting of an alkyl group, an allyl group, and an aryl group, a weight ratio of the end-capped polyalkylene oxide (A) to the core shell polymer (D) is 10/90 to 90/10, the core shell polymer (D) has a core layer selected from the group consisting of diene rubber, (meth)acrylate rubber, organosiloxane rubber, styrene polymer, and (meth)acrylate polymer, a core content of the core shell polymer is 70 to 95% by weight per 100 % by weight of the core shell polymer (D).
A semiconductor system for processing image data comprising: a memory coupled to a first transmission line and a second transmission line (La), and configured to store first data received through the first transmission line and second data received through the second transmission line (La); a central processing unit configured to perform system calculation using an application code stored in the memory; a system agent coupled to the memory through the first transmission line, and configured to control data communication between the central processing unit and the memory; an image input device coupled to the second transmission line (La), and configured to receive the image data from an external part and output the received image data to the second transmission line (La) as the second data; and a graphic processing unit coupled to the second transmission line, and configured to process the image data received through the second transmission line (La), wherein the first transmission line is a transmission line for bidirectional communication, and the second transmission line (La) is a loop-shaped transmission line to form a ring network topology. a memory coupled to a first transmission line and a second transmission line (La), and configured to store first data received through the first transmission line and second data received through the second transmission line (La); a central processing unit configured to perform system calculation using an application code stored in the memory; a system agent coupled to the memory through the first transmission line, and configured to control data communication between the central processing unit and the memory; an image input device coupled to the second transmission line (La), and configured to receive the image data from an external part and output the received image data to the second transmission line (La) as the second data; and a graphic processing unit coupled to the second transmission line, and configured to process the image data received through the second transmission line (La), wherein the first transmission line is a transmission line for bidirectional communication, and the second transmission line (La) is a loop-shaped transmission line to form a ring network topology.
An apparatus, comprising: an intra-body probe having a plurality of unipolar electrodes, the probe being configured to contact tissue in a heart; a display ; and a processor , which is configured to receive an electrical signal from the electrodes and, for a plurality of pairs of unipolar electrodes, to perform the steps of: recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram , wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation ; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof. an intra-body probe having a plurality of unipolar electrodes, the probe being configured to contact tissue in a heart; a display ; and a processor , which is configured to receive an electrical signal from the electrodes and, for a plurality of pairs of unipolar electrodes, to perform the steps of: recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram , wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation ; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof. recording a bipolar electrogram from a pair of unipolar electrodes; recording a unipolar electrogram from one of the electrodes of the pair of unipolar electrodes; defining a time interval comprising a window of interest wherein a rate of change in a potential of the bipolar electrogram exceeds a predetermined value; establishing an annotation in the unipolar electrogram , wherein the annotation denotes a maximum rate of change in a potential of the unipolar electrogram within the window of interest; assigning a quality value to the annotation ; and generating on the display a 3-dimensional map of a portion of the heart wherein the map includes the annotation and the quality value thereof.
A method for the manufacture of an a,β-unsaturated ketone, which method comprises oxidizing an alkene having -CH 2 - adjacent a carbon-carbon double bond to a,β-unsaturated ketone by passing air or oxygen through a solution of the hydrocarbon containing a catalyst consisting of N-hydroxyphthalimide (NHPI) and cobalt diacetate tetrahydrate at standard temperature and pressure during a period of at least 12 hours.