mhurhangee/patent-ind-claim-en huggingface dataset:
A method for encapsulating a component in a housing assembly , comprising: providing a housing assembly (10 1 ) that includes a housing with an opening and a printed circuit board, PCB , disposed in the housing , wherein the PCB includes at least one component positioned with respect to the PCB and wherein the PCB has a surface , the at least one component extending a distance away from the surface ; installing a cap onto the PCB and over the component wherein the cap includes an interior defined by a wall , the component being disposed in the interior of the cap ; after installing the cap , applying a predetermined vacuum to the housing assembly (10 1 ); after applying the vacuum, introducing an encapsulant through the opening of the housing so as to fill the housing to a predetermined potting level , wherein a portion of the interior of the cap remains at a pressure level established by the vacuum; releasing the vacuum to subject the housing assembly (10 1 ) to atmospheric pressure, wherein a pressure differential between atmospheric pressure and the remainder vacuum in the interior of the cap causes encapsulant to flow from the housing into the interior of the cap to encapsulate at least a portion of the component ; and curing the encapsulant , wherein the method comprises selecting the predetermined potting level so as to be less than the distance to which the component extends from the surface of the PCB , wherein after releasing the vacuum, a first encapsulant level in the interior of the cap , relative to the PCB surface , is higher than a second encapsulant level outside of the cap . providing a housing assembly (10 1 ) that includes a housing with an opening and a printed circuit board, PCB , disposed in the housing , wherein the PCB includes at least one component positioned with respect to the PCB and wherein the PCB has a surface , the at least one component extending a distance away from the surface ; installing a cap onto the PCB and over the component wherein the cap includes an interior defined by a wall , the component being disposed in the interior of the cap ; after installing the cap , applying a predetermined vacuum to the housing assembly (10 1 ); after applying the vacuum, introducing an encapsulant through the opening of the housing so as to fill the housing to a predetermined potting level , wherein a portion of the interior of the cap remains at a pressure level established by the vacuum; releasing the vacuum to subject the housing assembly (10 1 ) to atmospheric pressure, wherein a pressure differential between atmospheric pressure and the remainder vacuum in the interior of the cap causes encapsulant to flow from the housing into the interior of the cap to encapsulate at least a portion of the component ; and curing the encapsulant , wherein the method comprises selecting the predetermined potting level so as to be less than the distance to which the component extends from the surface of the PCB , wherein after releasing the vacuum, a first encapsulant level in the interior of the cap , relative to the PCB surface , is higher than a second encapsulant level outside of the cap .
Automatic coffee machine comprising a milk foaming device which comprises a foaming chamber fed by a hot water/steam feed duct , a milk feed duct and an air feed duct , the hot water/steam feed duct comprising a cross-sectional restriction forming a milk and air suction system based on the Venturi effect, the automatic coffee machine comprising a boiler producing hot water and/or steam, a control circuit and at least one maintenance solenoid valve arranged on at least the hot water/steam feed duct , the control circuit comprising a programme for cleaning the milk foaming device and a member for activating the cleaning programme, the control circuit being configured to direct the boiler and the at least one maintenance solenoid valve to send hot water/steam into the air feed duct after the activation member has been pressed, characterised in that the milk foaming device comprises a connecting duct connecting the hot water/steam feed duct and the air feed duct and in that , during the cleaning programme, the control circuit is configured to direct the boiler and the at least one maintenance solenoid valve to send hot water/steam alternately into the hot water/steam feed duct and into the air feed duct , via the connecting duct .
A method for operating a hybrid supply modulator including a switching mode power supplier, SMPS, for generating a current of a modulated power signal and a linear regulator for generating a sourcing current for supplementing a shortage amount of a current generated by the SMPS and generating a sinking current for removing an excessive amount of the current, the method comprising: detecting at least one of a current and a voltage at one or more points within a circuit of the hybrid supply modulator; characterised by performing a protection action corresponding to at least one electric over-stress situation based on the detecting result, wherein the protection action comprises shutting off a current flow of at least one transistor in the supply modulator. detecting at least one of a current and a voltage at one or more points within a circuit of the hybrid supply modulator; characterised by performing a protection action corresponding to at least one electric over-stress situation based on the detecting result, wherein the protection action comprises shutting off a current flow of at least one transistor in the supply modulator.
A swivel connector for use with a safety device including a safety device connector having a safety device connector aperture , comprising: a bracket assembly , having a flange including a flange aperture ; a swivel portion including a tab portion and a two prong portion , which includes two legs extending outward from the tab portion , the legs of the two prong portion including leg apertures , the tab portion having a tab portion aperture , the legs of the two prong portion defining an opening therebetween, the opening receiving the flange , the flange aperture and the leg apertures aligning; a first fastener extending through the flange aperture and the leg apertures , the swivel portion pivoting about the first fastener in a first direction relative to the flange ; a safety device connector having a safety device connector aperture ; and a second fastener through the safety device connector aperture and the tab portion aperture , so that the safety device connector pivots about the second fastener in a second direction opposite the first direction relative to the tab portion ; the first flange being operatively connected to a base of a bracket assembly configured and arranged to be operatively connected to a safety harness; and further comprising a safety harness connector configured and arranged to be operatively connected to the safety harness, a third fastener interconnecting the bracket assembly and the safety harness connector , the bracket assembly pivoting about the third fastener in a third direction relative to the safety harness connector .
A composition, comprising: a mixture of proteins for separating and detecting a first protein from one or more other proteins in the mixture, wherein said composition comprises: a first protein, one or more other proteins, and a modified ligand that comprises an acidic moiety and does not bind the first protein but is capable of binding to one of said one or more other proteins to form a complex with a lower charge to mass ratio than said one or more other proteins without said modified ligand; wherein said modified ligand has a lower isoelectric point than an unmodified ligand; characterized in that said first protein is a multisubunit protein, and said first protein and said one or more other proteins have similar charge to mass ratios. a first protein, one or more other proteins, and a modified ligand that comprises an acidic moiety and does not bind the first protein but is capable of binding to one of said one or more other proteins to form a complex with a lower charge to mass ratio than said one or more other proteins without said modified ligand; wherein said modified ligand has a lower isoelectric point than an unmodified ligand; characterized in that said first protein is a multisubunit protein, and said first protein and said one or more other proteins have similar charge to mass ratios.
Control system for controlling wind turbines, the control system comprises: - a central controller, - a number of wind turbine controllers (WTC), - a first monitoring and control network (MCN1) arranged for transmitting monitoring and control data and a second monitoring and control network (MCN2) arranged for transmitting monitoring and control data, the central controller (CC) being connected to the number of wind turbine controllers (WTC) by the first monitoring and control network (MCN1) and the second monitoring and control network (MCN2), and the first and second monitoring and control networks being arranged for transmitting control data from the central controller to the wind turbine controllers, and the central controller (CC) being adapted for controlling and monitoring the number of wind turbine controllers (WTC) via the first monitoring and control network (MCN1) and the second monitoring and control network (MCN2), wherein said central controller (CC) forms part of a control loop (CL1, CL2, CL3), the control loop being configured to perform a regulating action by transmitting an instruction to the wind turbine controllers, and wherein the monitoring and control data comprises critical power control data in the form of an instruction of setting the active or reactive power set point or an instruction of setting the power factor of a wind turbine, and wherein the critical power control data are transmitted between the central controller and wind turbine controllers (WTC) via the first monitoring and control network (MCN1) and the other data are transmitted between the central controller and wind turbine controllers (WTC) via the second monitoring and control network (MCN2). - a central controller, - a number of wind turbine controllers (WTC), - a first monitoring and control network (MCN1) arranged for transmitting monitoring and control data and a second monitoring and control network (MCN2) arranged for transmitting monitoring and control data,
An assembly of track-setting devices for producing a classic style skiing trail comprising: at least a first auxiliary tiller and a second auxiliary tiller ; characterised in that the first auxiliary tiller has a first hydraulic drive motor and the second auxiliary tiller has a second hydraulic drive motor , wherein the assembly further comprises a hydraulic apparatus comprising: a first inlet for receiving a fluid; a first outlet and a second outlet for releasing two flows of fluid; a first hydraulic coupling motor having a second inlet , a third outlet and a first shaft ; and a second hydraulic coupling motor having a third inlet , a fourth outlet and a second shaft ; wherein the second inlet and the third inlet are connected to the first inlet , and the first shaft and the second shaft are integrally connected to each other, the third outlet being connected to the first outlet , and the fourth outlet being connected to the second outlet ; wherein the first hydraulic drive motor is supplied by the first outlet and the second hydraulic drive motor is supplied by the second outlet .
A pumping unit for alimentary liquids, comprising a volumetric pump provided with at least one chamber inside which a piston slides hermetically; said chamber is connected alternately to a suction pipe and to a delivery pipe by means of automatic valves ; said pumping unit further comprising an electromechanical device for the alternating motion of said piston ; said electromechanical device being substantially constituted by a screw drive means operatively connected to said piston and actuated by an electric motor means ; said pumping unit being characterized in that said electromechanical device comprises at least one slider that can slide on at least one linear guide ; said slider being associated with said screw drive means so as to interact with said piston .
A circuit subassembly, comprising a conductive layer disposed on a dielectric substrate layer having a dielectric constant of less than 3.5 and a dissipation factor of less than 0.006 at 10 GHz, wherein the composition of the dielectric substrate layer comprises: a polymer matrix material; and hollow borosilicate microspheres, characterized in that the borosilicate microspheres are a product of a process of subjecting the borosilicate microspheres to an alkaline solution, wherein the microspheres have a sodium oxide content of not more than 5 weight percent, as measured by XPS surface analysis. a polymer matrix material; and hollow borosilicate microspheres, characterized in that the borosilicate microspheres are a product of a process of subjecting the borosilicate microspheres to an alkaline solution, wherein the microspheres have a sodium oxide content of not more than 5 weight percent, as measured by XPS surface analysis.
Equipment for manufacturing a separator plate (SP) for a fuel cell, comprising a first uncoiler uncoiling a first metal strip (M1) ; a second uncoiler uncoiling a second metal strip (M2) ; a press (30, 30', 30") receiving the first metal strip and the second metal strip to respectively form patterns thereon; a welding machine overlapping and integrally bonding the first metal strip and the second metal strip, transferred from the press, by a welding process; and a cutter cutting a bonded body of the first metal strip and the second metal strip, transferred from the welding machine, characterized in that the press comprises a first mold , a second mold disposed below the first mold, a first punch disposed between the first mold and the second mold to face the first mold, and a second punch disposed between the first mold and the second mold to face the second mold, wherein the first punch and the second punch are configured to be integrally connected and reciprocate integrally between the first mold and the second mold, and wherein the press, the welding machine, and the cutter are sequentially arranged, and the first metal strip and the second metal strip are passed through the press, the welding machine, and the cutter, while connected to each other, to be processed. a first uncoiler uncoiling a first metal strip (M1) ; a second uncoiler uncoiling a second metal strip (M2) ; a press (30, 30', 30") receiving the first metal strip and the second metal strip to respectively form patterns thereon; a welding machine overlapping and integrally bonding the first metal strip and the second metal strip, transferred from the press, by a welding process; and a cutter cutting a bonded body of the first metal strip and the second metal strip, transferred from the welding machine, characterized in that the press comprises a first mold , a second mold disposed below the first mold, a first punch disposed between the first mold and the second mold to face the first mold, and a second punch disposed between the first mold and the second mold to face the second mold, wherein the first punch and the second punch are configured to be integrally connected and reciprocate integrally between the first mold and the second mold, and wherein the press, the welding machine, and the cutter are sequentially arranged, and the first metal strip and the second metal strip are passed through the press, the welding machine, and the cutter, while connected to each other, to be processed.
Device for processing liquids, comprising: a receiving container for receiving the liquid; a filter element displaceably mounted within the receiving container and dividing the receiving container into a first compartment and a second compartment; a flow restrictor displaceably mounted within the receiving container and arranged to permit flow of the liquid between the compartments in one direction only; wherein the device is configured such that by displacing the filter element within the receiving container, a retentate is provided in the first compartment and a filtrate is provided in the second compartment, characterized by a removable bottom lid, wherein second retaining means are provided on the inner wall of the removable bottom lid so that the filter element can be locked in the removable bottom lid by means of the second retaining means at the end of the processing operation. a receiving container for receiving the liquid; a filter element displaceably mounted within the receiving container and dividing the receiving container into a first compartment and a second compartment; a flow restrictor displaceably mounted within the receiving container and arranged to permit flow of the liquid between the compartments in one direction only; wherein the device is configured such that by displacing the filter element within the receiving container, a retentate is provided in the first compartment and a filtrate is provided in the second compartment, characterized by a removable bottom lid, wherein second retaining means are provided on the inner wall of the removable bottom lid so that the filter element can be locked in the removable bottom lid by means of the second retaining means at the end of the processing operation.
A system for scanning a gas mixture using a first type of sensor , the first type of sensor generating a scan output for a set of gases in the gas mixture and the scan output including spectra of detected ions as a function of mass to charge ratio corresponding to the set of gases , comprising: a database for storing standard reference data related to standard fragmentation and ionization potentials for the set of gases ; and a set of modules, wherein the set of modules comprises: a matrix multiplication module that is configured to pre-multiply a B matrix with a diagonal matrix that is created with a vector of nominal concentration of the set of gases to obtain an adjusted B matrix, wherein the B matrix is a multiplication of P, T, C and R matrices relating to the standard reference data, wherein P is a convolution matrix representing peak shapes, T is transmission efficiencies at each integral mass to charge ratio, R is relative ionization potentials for each gas and C is a reference spectrum representing idealized responses for each gas at the integral mass to charge ratio; and a mass to charge ratio extraction module that is configured to select a set of mass to charge ratios for the set of gases to scan in a time budget based on the adjusted B matrix. a database for storing standard reference data related to standard fragmentation and ionization potentials for the set of gases ; and a set of modules, wherein the set of modules comprises: a matrix multiplication module that is configured to pre-multiply a B matrix with a diagonal matrix that is created with a vector of nominal concentration of the set of gases to obtain an adjusted B matrix, wherein the B matrix is a multiplication of P, T, C and R matrices relating to the standard reference data, wherein P is a convolution matrix representing peak shapes, T is transmission efficiencies at each integral mass to charge ratio, R is relative ionization potentials for each gas and C is a reference spectrum representing idealized responses for each gas at the integral mass to charge ratio; and a mass to charge ratio extraction module that is configured to select a set of mass to charge ratios for the set of gases to scan in a time budget based on the adjusted B matrix. a matrix multiplication module that is configured to pre-multiply a B matrix with a diagonal matrix that is created with a vector of nominal concentration of the set of gases to obtain an adjusted B matrix, wherein the B matrix is a multiplication of P, T, C and R matrices relating to the standard reference data, wherein P is a convolution matrix representing peak shapes, T is transmission efficiencies at each integral mass to charge ratio, R is relative ionization potentials for each gas and C is a reference spectrum representing idealized responses for each gas at the integral mass to charge ratio; and a mass to charge ratio extraction module that is configured to select a set of mass to charge ratios for the set of gases to scan in a time budget based on the adjusted B matrix.
A sintered bead having: - the following chemical composition, as mass percentages on the basis of the oxides: - ZrO 2 + HfO 2 + Y 2 O 3 + CeO 2 : remainder to 100%; - 0% ≤ Al 2 O 3 ≤ 1.5%; - CaO ≤ 2%; - oxides other than ZrO 2 , HfO 2 , Y 2 O 3 , CeO 2 , Al 2 O 3 and CaO: ≤ 5%; the contents of Y 2 O 3 and CeO 2 , as molar percentages on the basis of the sum of ZrO 2 , HfO 2 , Y 2 O 3 and CeO 2 , being such that 1.8% ≤ Y 2 O 3 ≤ 2.5% and 0.1% ≤ CeO 2 ≤ 0.9%, and - the following crystalline phases, as mass percentages on the basis of the crystalline phases and for a total of 100%: - stabilized zirconia: remainder to 100%; - monoclinic zirconia: ≤ 10%; - crystalline phases other than stabilized zirconia and monoclinic zirconia: < 7%. - the following chemical composition, as mass percentages on the basis of the oxides: - ZrO 2 + HfO 2 + Y 2 O 3 + CeO 2 : remainder to 100%; - 0% ≤ Al 2 O 3 ≤ 1.5%; - CaO ≤ 2%; - oxides other than ZrO 2 , HfO 2 , Y 2 O 3 , CeO 2 , Al 2 O 3 and CaO: ≤ 5%; the contents of Y 2 O 3 and CeO 2 , as molar percentages on the basis of the sum of ZrO 2 , HfO 2 , Y 2 O 3 and CeO 2 , being such that 1.8% ≤ Y 2 O 3 ≤ 2.5% and 0.1% ≤ CeO 2 ≤ 0.9%, and - ZrO 2 + HfO 2 + Y 2 O 3 + CeO 2 : remainder to 100%; - 0% ≤ Al 2 O 3 ≤ 1.5%; - CaO ≤ 2%; - oxides other than ZrO 2 , HfO 2 , Y 2 O 3 , CeO 2 , Al 2 O 3 and CaO: ≤ 5%; - the following crystalline phases, as mass percentages on the basis of the crystalline phases and for a total of 100%: - stabilized zirconia: remainder to 100%; - monoclinic zirconia: ≤ 10%; - crystalline phases other than stabilized zirconia and monoclinic zirconia: < 7%. - stabilized zirconia: remainder to 100%; - monoclinic zirconia: ≤ 10%; - crystalline phases other than stabilized zirconia and monoclinic zirconia: < 7%.