mhurhangee/patent-ind-claim-en huggingface dataset:
An insert for an inflow and outflow apparatus that is mountable on an aircraft, wherein the insert has - an accumulator sleeve having an entry opening ; - an inflow line having a supply line connector for a respective supply line ; and - at least one exit opening ; wherein the accumulator sleeve forms a first supply line portion , is configured for insertion into a respective shaft of the respective inflow and outflow apparatus , and is dimensioned such that the entry opening of the accumulator sleeve in a state in which the insert is inserted into the respective shaft is located close to an opening between a respective head part and the respective shaft of the respective inflow and outflow apparatus ; wherein the accumulator sleeve by way of the inflow line as the second supply line portion is connected to the supply line connector for a respective supply line ; and wherein the accumulator sleeve is configured for generating in the state in which the insert is inserted into the respective shaft a pressure differential between the entry opening of the accumulator sleeve and the at least one exit opening of the insert , said pressure differential providing an air flow, wherein the inflow line that serves as the second supply line portion has a reduced diameter in relation to the accumulator sleeve that serves as the first supply line portion , on account of which in the state in which the insert is inserted into the respective shaft the pressure differential between the entry opening of the accumulator sleeve and the at least one exit opening of the insert is generated, characterized in that the insert has a discharge line connector for a respective discharge line , and the insert has an outflow jacket tube that surrounds the inflow line and is connected to the discharge line connector for the respective discharge line , the first supply line portion has a cross section that is larger than the sum of the cross sections of the second supply line portion and of the outflow jacket tube that surrounds the second supply line portion , and the outflow jacket tube has the at least one exit opening . - an accumulator sleeve having an entry opening ; - an inflow line having a supply line connector for a respective supply line ; and - at least one exit opening ;
Method for filling containers with a fluid filling material, making use of a filling system , wherein a closure plane of a fluid valve of a filling element (1.1) lies arranged at a height (H1) above a filling material level of a fluid compartment (50.2) of a filling material container of a mixer, wherein the container , located in a sealing position with the filling element (1.1) of the filling system , is pressurised in a pressurising phase at least periodically with a gas to a pressurising pressure (P Pressure ), wherein the gas used for the pressurising is drawn from a gas compartment (50.2), which is under a positive pressure (P Boiler ), of the filling material container of the mixer, and in a filling phase which then follows, with the fluid valve of the filling element (1.1) open, is filled with the filling material from the fluid compartment (50.2) of the filling material container by way of a product line of the filling system (1.1), entirely filled with the fluid filling material, wherein, at least during the filling phase, the return gas which is displaced out of the container by the inflowing filling material is discharged into a ring channel via a return gas path of the filling element (1.1), and wherein, during the pressurising phase, at least before the subsequent filling phase starts, a pressurising pressure (P Pressure ) is generated in the container , which is at a pressure level below the positive pressure (P Boiler ) in the gas compartment (50.2) of the filling material container of the mixer.
A turbomachine turbine comprising a casing , an outer metal support shroud integral with the casing , an inner metal support shroud , and an annular turbine distributor defining an axial direction (D A ) and a radial direction (D R ) and including a plurality of distributor sectors made of ceramic matrix composite material forming a crown extending between the outer support shroud and the inner support shroud , each sector including a metal mast , an inner platform , an outer platform and at least one blade extending radially between the inner and outer platforms and having a hollow profile that defines an inner housing extending radially, the inner and outer platforms each having an opening communicating with said inner housing of the blade , and the mast passing through said openings and the inner housing and being secured to said casing on the one hand and connected to said annular sector on the other hand, characterized in that each blade comprises at least one first radial shoulder projecting in the axial direction (D A ) from an inner surface of the blade towards the inside of the blade , and each mast comprises at least one second shoulder projecting in the axial direction (D A ) from an outer surface of the mast towards the outside of the mast configured to cooperate with said at least one first shoulder in the radial direction (D R ) and radially press the blade against the mast , at least one first shoulder comprising a first beveled portion forming a first non-zero angle (β) with the axial direction (D A ) and at least one second shoulder comprising a second beveled portion forming a second non-zero angle (α) with the axial direction (D A ), the first angle (β) and the second angle (α) having the same value. each sector including a metal mast , an inner platform , an outer platform and at least one blade extending radially between the inner and outer platforms and having a hollow profile that defines an inner housing extending radially, the inner and outer platforms each having an opening communicating with said inner housing of the blade , and the mast passing through said openings and the inner housing and being secured to said casing on the one hand and connected to said annular sector on the other hand, characterized in that each blade comprises at least one first radial shoulder projecting in the axial direction (D A ) from an inner surface of the blade towards the inside of the blade , and each mast comprises at least one second shoulder projecting in the axial direction (D A ) from an outer surface of the mast towards the outside of the mast configured to cooperate with said at least one first shoulder in the radial direction (D R ) and radially press the blade against the mast , at least one first shoulder comprising a first beveled portion forming a first non-zero angle (β) with the axial direction (D A ) and at least one second shoulder comprising a second beveled portion forming a second non-zero angle (α) with the axial direction (D A ), the first angle (β) and the second angle (α) having the same value.
A method, comprising: identifying a physical arrangement of: (i) a first display , (ii) a second display coupled to the first display , and (iii) a keyboard for providing inputs to the processor associated with the first display and the second display , wherein the physical arrangement comprises: a first spacial relationship between: (i) the first display , and (ii) the second display ; and a second spacial relationship between: (i) at least one of the first or second displays , and (ii) the keyboard ; executing an operation associated with the physical arrangement, wherein executing the operation comprises providing a Graphical User Interface, GUI, feature displayed by the first or second displays in response to the second spacial relationship indicating that the keyboard rests next to a display surface of the first or second displays , and wherein providing the GUI feature comprises rendering an image along an edge of the display surface nearest the keyboard ; identifying a change to the second spacial relationship whereby the keyboard is moved atop the display surface; and modifying the user interface feature. identifying a physical arrangement of: (i) a first display , (ii) a second display coupled to the first display , and (iii) a keyboard for providing inputs to the processor associated with the first display and the second display , wherein the physical arrangement comprises: a first spacial relationship between: (i) the first display , and (ii) the second display ; and a second spacial relationship between: (i) at least one of the first or second displays , and (ii) the keyboard ; executing an operation associated with the physical arrangement, wherein executing the operation comprises providing a Graphical User Interface, GUI, feature displayed by the first or second displays in response to the second spacial relationship indicating that the keyboard rests next to a display surface of the first or second displays , and wherein providing the GUI feature comprises rendering an image along an edge of the display surface nearest the keyboard ; identifying a change to the second spacial relationship whereby the keyboard is moved atop the display surface; and modifying the user interface feature.
Use of a catalyst comprising zirconium oxide and calcium oxide for producing a conjugated diene by causing a reaction of removing two water molecules from one 3-methyl-1,3-butanediol molecule to produce isoprene to proceed, wherein the catalyst is used under a condition that a mass flow rate (WHSV: Weight Hourly Space Velocity) of the 3-methyl-1,3-butanediol per unit time with respect to a weight of the catalyst for producing a conjugated diene is 1.5 or less.
An amplifier structure comprising: a transistor element having a plurality of sub-sections (36a-36j) J Z arranged adjacent to one another along a transistor element; axis ; and a bias distribution element configured to receive a bias signal from a lead and provide the bias signal to the transistor element , the bias distribution element comprising: a first part configured to receive the bias signal and to deliver the bias signal to a distribution point ; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element ; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element , the distribution point arranged facing a centre point of the transistor element: axis . a transistor element having a plurality of sub-sections (36a-36j) J Z arranged adjacent to one another along a transistor element; axis ; and a bias distribution element configured to receive a bias signal from a lead and provide the bias signal to the transistor element , the bias distribution element comprising: a first part configured to receive the bias signal and to deliver the bias signal to a distribution point ; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element ; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element , the distribution point arranged facing a centre point of the transistor element: axis . a first part configured to receive the bias signal and to deliver the bias signal to a distribution point ; and a second part electrically connected to the first part only Z at the distribution point and configured to supply the bias signal to each of the sub-sections (36a-36j) of the transistor element ; wherein the second part comprises separate current paths that diverge from the distribution point to provide the bias signal to each of the sub-sections (36a-36j) of the transistor element , the distribution point arranged facing a centre point of the transistor element: axis .
Method for operating an inverter, in particular an NPC inverter, for converting a DC voltage of a DC voltage source into an AC voltage, comprising a DC-voltage DC link , which has a series circuit of a first and a second DC link capacitor (C1, C2) between a first and a second DC voltage terminal of the one DC voltage source , at least one bridge branch , which has a series circuit of a first and a second switching element (S1, S2) between the first and the second DC voltage terminal of the one DC voltage source , a first and a second diode (D1, D2) being wired in antiparallel with the first and second switching elements (S1, S2), respectively, at least one free-wheeling circuit , which has a switching means (S3, S4, D3, D4) between a common DC voltage node point of the DC-voltage DC link and a common AC voltage node point of the bridge branch , a first AC voltage terminal, which is connected to the DC voltage node point , and a second AC voltage terminal, which is connected to the AC voltage node point , characterised in that the switching means (S3, S4, D3, D4) of the free-wheeling circuit and the switching elements (S1, S2) of the bridge branch are basically opened and closed with the clock signal of a negative and a positive half-wave of the AC voltage; the DC voltages or charges applied at the DC link capacitors (C1, C2) are detected; the switching elements (S1, S2) of the bridge branch are opened around a zero crossing of AC voltage and/or alternating current, in a manner deviating from their basic clock signal; and the switching means (S3, S4, D3, D4) of the free-wheeling circuit is opened around a zero crossing of AC voltage and/or alternating current, in a manner deviating from the basic clock signal of said switching means, if an asymmetry is detected between the DC voltages or charges at the DC link capacitors (C1, C2).
An illumination device comprising: a board having a first face and a second face opposite to the first face ; a first light source disposed on the first face ; a second light source disposed on the second face ; and a second wiring pattern disposed on the second face , wherein the second wiring pattern is disposed so as to cover a region (A12) on the second face , the region (A12) on the second face opposed to a region (A11) on the first face with the first light source disposed therein, wherein the illumination device further comprises a first wiring pattern disposed on the first face , wherein the first wiring pattern is disposed so as to cover a region (A22) on the first face , the region (A22) on the first face opposed to a region (A21) on the second face with the second light source disposed therein, characterised in that the illumination device is an illumination device configured for illuminating a charging inlet of a vehicle, wherein the first light source is a light source configured for illuminating the charging inlet of the vehicle, and wherein the second light source is a light source for an indicator, the indicator being configured to indicate a state of charge of the vehicle. a board having a first face and a second face opposite to the first face ; a first light source disposed on the first face ; a second light source disposed on the second face ; and a second wiring pattern disposed on the second face , wherein the second wiring pattern is disposed so as to cover a region (A12) on the second face , the region (A12) on the second face opposed to a region (A11) on the first face with the first light source disposed therein, wherein the illumination device further comprises a first wiring pattern disposed on the first face , wherein the first wiring pattern is disposed so as to cover a region (A22) on the first face , the region (A22) on the first face opposed to a region (A21) on the second face with the second light source disposed therein, characterised in that the illumination device is an illumination device configured for illuminating a charging inlet of a vehicle, wherein the first light source is a light source configured for illuminating the charging inlet of the vehicle, and wherein the second light source is a light source for an indicator, the indicator being configured to indicate a state of charge of the vehicle.
Method for the power requirement-dependent operation of a generator unit mounted on an agricultural work vehicle , in which method a power output of the generator unit is varied as a function of a determined power requirement of an electrical consumer , which is fed with the power of the generator unit , of an attachment which is connected to the agricultural work vehicle, wherein the power output of the generator unit is varied by adapting an input rotational speed of the generator unit , characterized in that the power requirement by the attachment is determined, and the determined power requirement of the attachment is transmitted as a power demand at least indirectly to the generator unit .
Vehicle hybrid powertrain, consisting of a gearbox according to one of claims 8 to 11 and three power sources which are connected by axially offset input shafts in the gearbox , characterized in that the torque of a first electric machine is returned to the common output shaft by means of a double pinion , rotating freely on the input shaft of a second electric machine .
A milk frothing device , comprising a milk container having at least one bottom , a support base for supporting the milk container , a conduit for dispensing the frothed milk comprising a portion internal to the milk container which extends towards said bottom of the milk container and a portion external to said milk container having a downward dispensing end for the direct dispensing into a cup , a conduit for the inlet of air into the milk container , a rotatable mechanical stirrer positioned inside said milk container for frothing the milk, a milk heater, and a means for the activation in rotation of said mechanical stirrer housed in said support base , characterized in that it comprises a removable lid for the hermetic closure of said milk container , and a supplier of compressed air to said air inlet conduit for the ejection of the frothed milk contained in said milk container through said dispensing conduit .
A method, performed by a user equipment, UE, in a wireless communication system, the method comprising: obtaining sidelink logical channel configuration information corresponding to a logical channel and including a sidelink logical channel priority, sl-priority, information; characterized by : selecting a destination associated with one of unicast, groupcast, or broadcast having a logical channel with a highest priority, based on the sl-priority information, for a sidelink grant; selecting at least one logical channel corresponding to the selected destination; allocating sidelink resources for the sidelink grant to the at least one logical channel corresponding to the destination based on the sl-priority information; multiplexing sidelink data included in the at least one logical channel corresponding to the destination to a medium access control, MAC, protocol data unit, PDU; and transmitting the MAC PDU to another UE using the sidelink resources. selecting a destination associated with one of unicast, groupcast, or broadcast having a logical channel with a highest priority, based on the sl-priority information, for a sidelink grant; selecting at least one logical channel corresponding to the selected destination; allocating sidelink resources for the sidelink grant to the at least one logical channel corresponding to the destination based on the sl-priority information; multiplexing sidelink data included in the at least one logical channel corresponding to the destination to a medium access control, MAC, protocol data unit, PDU; and transmitting the MAC PDU to another UE using the sidelink resources.
A method for producing a sealable biaxially oriented polyester-based monomaterial film which is stretched in a first direction and in a second direction perpendicular to the first direction, comprising the steps of: a) melt extruding a substrate comprising at least a first and a second layer, the first layer of which is a base layer (2.1) and the second layer of which is a non-crystallisable intermediate layer (2.2), the base layer and the intermediate layer being coextruded; b) then applying a heat-sealable coating layer (2.3) to the substrate by means of melt coating; c) acting of the coating layer (2.3) with a temperature above the melting point or the softening point of the intermediate layer (2.2) melted therewith with respect to a contact region on the intermediate layer, in that the duration of a first heat supply from the coating layer (2.3) to the intermediate layer (2.2) is controlled by changing a contact length of the substrate on a tempered roller and the physical properties of the coating layer (2.3) is controlled with respect to an intensity of adhesion between the coating layer (2.3) and the intermediate layer (2.2), the heat supply via the intermediate layer (2.2) to the base layer (2.1) being influenced to such an extent that the temperature of the base layer (2.1) of the substrate is below its crystallisation temperature; and d) transverse stretching after heating the substrate coated with the coating layer (2.3) starting from an increased temperature level via a time-controlled second heat supply. a) melt extruding a substrate comprising at least a first and a second layer, the first layer of which is a base layer (2.1) and the second layer of which is a non-crystallisable intermediate layer (2.2), the base layer and the intermediate layer being coextruded; b) then applying a heat-sealable coating layer (2.3) to the substrate by means of melt coating; c) acting of the coating layer (2.3) with a temperature above the melting point or the softening point of the intermediate layer (2.2) melted therewith with respect to a contact region on the intermediate layer, in that the duration of a first heat supply from the coating layer (2.3) to the intermediate layer (2.2) is controlled by changing a contact length of the substrate on a tempered roller and the physical properties of the coating layer (2.3) is controlled with respect to an intensity of adhesion between the coating layer (2.3) and the intermediate layer (2.2), the heat supply via the intermediate layer (2.2) to the base layer (2.1) being influenced to such an extent that the temperature of the base layer (2.1) of the substrate is below its crystallisation temperature; and d) transverse stretching after heating the substrate coated with the coating layer (2.3) starting from an increased temperature level via a time-controlled second heat supply.