mhurhangee/patent-ind-claim-en huggingface dataset:
Support head (20, 20 (I) ) for attachment to a formwork support (18a - 181) for creating the formwork for a floor using a large number of floor formwork elements (14a - 14u) which each have a form surface ; wherein the support head (20, 20 (I) ) has: a connecting portion for connecting the support head (20, 20 (I) ) to a shaft portion of the formwork support (18a - 181); two support portions suitable for supporting at least one pair of adjacent floor formwork elements of the large number of floor formwork elements (14a - 14u) such that each one of the floor formwork elements of the adjacent pair can be mounted on each of the support portions on at least one mounting point (P 1 , P 2 ); wherein the mounting points (P 1 , P 2 ) have a substantially equal formwork mounting height (h 1 ); wherein the support head (20, 20 (I) ) has an adjustment device which for moving a first support portion into an arrangement in which the floor formwork element which can be mounted on the first support portion can be mounted thereon on at least one subjacent mounting point (P 3 ) which is at a lower mounting height (h 2 ) than the formwork mounting height (h 1 ) has a guide , which is designed as a rotary sliding guide having an elongate hole for lowering the first support portion in a vertical direction; wherein the mounting point (P 2 ) of the second support portion at the lower mounting height (h 2 ) remains at the formwork mounting height (h 1 ). a connecting portion for connecting the support head (20, 20 (I) ) to a shaft portion of the formwork support (18a - 181); two support portions suitable for supporting at least one pair of adjacent floor formwork elements of the large number of floor formwork elements (14a - 14u) such that each one of the floor formwork elements of the adjacent pair can be mounted on each of the support portions on at least one mounting point (P 1 , P 2 ); wherein the mounting points (P 1 , P 2 ) have a substantially equal formwork mounting height (h 1 ); wherein the support head (20, 20 (I) ) has an adjustment device which for moving a first support portion into an arrangement in which the floor formwork element which can be mounted on the first support portion can be mounted thereon on at least one subjacent mounting point (P 3 ) which is at a lower mounting height (h 2 ) than the formwork mounting height (h 1 ) has a guide , which is designed as a rotary sliding guide having an elongate hole for lowering the first support portion in a vertical direction; wherein the mounting point (P 2 ) of the second support portion at the lower mounting height (h 2 ) remains at the formwork mounting height (h 1 ).
A container configured to connect with a microfluidic device , the container comprising: a housing that encloses a chamber configured to hold dry chemicals and having a first cylindrical opening and a second opening smaller than the first cylindrical opening ; a first lid configured to cover the first cylindrical opening and comprising a first protruding structure that extends around an external circumference of a top portion of the first lid , and a second protruding structure that extends around an external circumference of a bottom portion of the first lid between slotted openings through the bottom portion of the first lid ; and a second removable lid configured to cover the second opening , wherein the housing is configured to be inserted into an opening of the micro fluidic device , such that the container is independently secured within the opening , and such that a microfluidic channel of the microfluidic device is fluidically coupled with the chamber via the second opening . a housing that encloses a chamber configured to hold dry chemicals and having a first cylindrical opening and a second opening smaller than the first cylindrical opening ; a first lid configured to cover the first cylindrical opening and comprising a first protruding structure that extends around an external circumference of a top portion of the first lid , and a second protruding structure that extends around an external circumference of a bottom portion of the first lid between slotted openings through the bottom portion of the first lid ; and a second removable lid configured to cover the second opening , wherein the housing is configured to be inserted into an opening of the micro fluidic device , such that the container is independently secured within the opening , and such that a microfluidic channel of the microfluidic device is fluidically coupled with the chamber via the second opening .
Tool half for an injection moulding machine for producing an injection moulded part with at least one insert part , comprising - a mould region , which forms at least part of a cavity for the injection moulded part; - a transport channel extending inside the tool half and through the mould region ; - a feed channel , which is designed to feed the insert part into the tool half , extends vertically through the tool half and leads into a take-up region of the transport channel ; - a positioning unit , which is designed, by virtue of a movement from a demoulding position into an injecting position, to take up the insert part when said insert part is arranged in the take-up region of the transport channel , and to transport the taken-up insert part from the take-up region to an injection moulding position in the region of the mould region ; - a sensor system, which is designed to determine a position of the insert part and/or of the positioning unit and to transmit corresponding position signals to a controller of the tool half , which controller is configured to actuate the positioning unit for the purpose of transporting the insert part into the injection moulding position in dependence on the sensor signals. - a mould region , which forms at least part of a cavity for the injection moulded part; - a transport channel extending inside the tool half and through the mould region ; - a feed channel , which is designed to feed the insert part into the tool half , extends vertically through the tool half and leads into a take-up region of the transport channel ; - a positioning unit , which is designed, by virtue of a movement from a demoulding position into an injecting position, to take up the insert part when said insert part is arranged in the take-up region of the transport channel , and to transport the taken-up insert part from the take-up region to an injection moulding position in the region of the mould region ; - a sensor system, which is designed to determine a position of the insert part and/or of the positioning unit and to transmit corresponding position signals to a controller of the tool half , which controller is configured to actuate the positioning unit for the purpose of transporting the insert part into the injection moulding position in dependence on the sensor signals.
Method for managing the amounts of power drawn from power units (30.1, 32.1) of the propulsion units of an aircraft, each power unit (30.1, 32.1) being configured to assume an operational state or a non-operational state and having a power drawing capacity, the aircraft comprising at least first and second power units (30.1, 32.1), which for a flight require a minimum number (Mmin) of power units in the operational state and which have actual energy requirements , the method comprising a step of increasing the amounts of power drawn from at least the first and second power units (30.1, 32.1); characterized in that the method comprises a step of increasing the amount of power drawn from said second power unit (32.1) that is time shifted, with respect to a step of increasing the amount of power drawn from said first power unit (30.1), for a duration that at least allows the operational state or the non-operational state of the first power unit (30.1) to be determined.
A method for discharging a fixed amount of liquid by using an apparatus that comprises a pressure reducing valve for decompressing a compressed gas supplied from a pressure gas source , a discharge valve for controlling a passage amount of the gas decompressed by the pressure reducing valve , a liquid reservoir for discharging the liquid through a nozzle by pressing the liquid with the gas supplied through the discharge valve, and a buffer tank disposed between the pressure reducing valve and the discharge valve and having a larger volume than the liquid reservoir , wherein flow resistance of a flow path communicating the buffer tank and the liquid reservoir is set larger than flow resistance of a flow path communicating the buffer tank and the pressure reducing valve , characterized in that at least a part of the flow path communicating the buffer tank and the liquid reservoir is set to have a smaller diameter than a minimum inner diameter of the flow path communicating the buffer tank and the pressure reducing valve , thereby suppressing the pressure reduction that is generated in the flow path, through which the compressed gas is supplied to the liquid reservoir , when the pressure reducing valve is operated. wherein flow resistance of a flow path communicating the buffer tank and the liquid reservoir is set larger than flow resistance of a flow path communicating the buffer tank and the pressure reducing valve , characterized in that at least a part of the flow path communicating the buffer tank and the liquid reservoir is set to have a smaller diameter than a minimum inner diameter of the flow path communicating the buffer tank and the pressure reducing valve , thereby suppressing the pressure reduction that is generated in the flow path, through which the compressed gas is supplied to the liquid reservoir , when the pressure reducing valve is operated.
Method for producing motor vehicles, comprising the steps a. coating a motor vehicle body with at least one paint b. drying and/or hardening the at least one paint c. mounting attachment parts on load-bearing components of the motor vehicle body coated with the at least one paint that has been dried and/or hardened, as well as d. applying an adhesive film , which comprises an adhesive layer, to a surface (170; 172) of the motor vehicle body coated with the at least one paint that has been dried and/or hardened or of one of the attachment parts mounted thereon wherein, for applying the adhesive film e. the adhesive film is positioned between the surface (170; 172) and an elastic membrane (120; 122) using an automated system , and f. the elastic membrane (120; 122) is transformed at least in parts into a curved state with a convex and a concave side and is brought into contact with the surface (170; 172) with the convex side in front, with the result that the adhesive layer of the adhesive film is pressed onto the surface (170; 172) by the membrane (120; 122) over the entire surface area. a. coating a motor vehicle body with at least one paint b. drying and/or hardening the at least one paint c. mounting attachment parts on load-bearing components of the motor vehicle body coated with the at least one paint that has been dried and/or hardened, as well as d. applying an adhesive film , which comprises an adhesive layer, to a surface (170; 172) of the motor vehicle body coated with the at least one paint that has been dried and/or hardened or of one of the attachment parts mounted thereon wherein, for applying the adhesive film e. the adhesive film is positioned between the surface (170; 172) and an elastic membrane (120; 122) using an automated system , and f. the elastic membrane (120; 122) is transformed at least in parts into a curved state with a convex and a concave side and is brought into contact with the surface (170; 172) with the convex side in front, with the result that the adhesive layer of the adhesive film is pressed onto the surface (170; 172) by the membrane (120; 122) over the entire surface area.
A central buffer coupling for a track-guided vehicle, in particular a rail vehicle, with a coupling shaft and a device for horizontal recentring of the coupling shaft of the central buffer coupling, the device having a first rotational element and a second rotational element rotatable relative to the first rotational element , the device being configured to produce the force required to generate the restoring torque acting on the coupling shaft by rotation of the two rotational elements relative to one another, characterised in that the central buffer coupling comprises an axial bearing means and the first and second rotational elements are components of the axial bearing means , and wherein the axial bearing means is configured to generate, at least when required, a torque acting on the coupling shaft.
A coupling module as an interface between a passenger boarding bridge or passenger boarding stairs and the fuselage of an aircraft , the coupling module having a floor and an exit opening , the floor comprising a floor head part , wherein the floor head part is horizontally slidable, under the control of at least one sensor arrangement, in the direction of the exit opening of the coupling module , while forming a front side distance between the floor head part and the aircraft fuselage, characterized in that the floor comprises a stationary floor section , the at least one floor head part being slidably disposed on the stationary floor section .
A decoder (500; 600) for providing a decoded representation (512, 514; 630b) of an audio signal on the basis of an encoded audio stream (510; 610) representing spectral components of frequency bands of the audio signal and a multi-band noise intensity value , the decoder comprising: a noise filler (520; 770) configured to introduce noise into spectral components of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a single common multi-band noise intensity value , and wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; wherein the decoder is configured to scale a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information. a noise filler (520; 770) configured to introduce noise into spectral components of a plurality of frequency bands, to which separate frequency band gain information, namely scale factors, is associated, on the basis of a single common multi-band noise intensity value , and wherein starting from a noise filling start line every spectral line quantized to zero is replaced with a replacement value, which is an indicated noise value, a magnitude of which is determined by the multi-band noise intensity value, with a random sign, to perform a noise filling in a quantized domain; wherein the decoder is configured to scale a replacement value with a scale factor transmitted for an actual scale factor band, to perform an individual scaling of noise introduced into different frequency bands on the basis of the frequency band gain information.
Floating wind turbine comprising a floating platform and a turbine engine resting on the platform, the turbine engine comprising: - first and second vertical-axis turbines arranged symmetrically with respect to a first plane, each turbine comprising a number N of blades equal to or greater than 2 comprising central parts and profiled arms ; the axes of rotation (A, A') of the blades of the turbines being contained in a second plane perpendicular to the first plane, the central parts of the blades in rotation describing cylinders around the axes (A, A') and being extended at the ends by the arms, the arms also being linked to axle elements by pivot linkages , the arms being perpendicular to the axes of rotation (A, A') of the blades , the central part of each blade being linked to each arm via a profiled elbow portion , in which, for each blade , the height of the central part of the blade measured parallel to the axis of rotation (A, A') of the blade, is greater than or equal to 2/3 of the height, measured parallel to the axis of rotation (A, A') of the blade, between the two arms linked to the central part of the blade and in which each turbine is supported by two horizontal fairings, upper and lower (42, 44; 126, 128) equipped with support structure and does not comprise a shaft linking the axle elements together; and - a structure for bearing the turbines composed comprising said upper and lower horizontal fairings equipped with support structures, linked to a vertical median pylon between the turbines. - first and second vertical-axis turbines arranged symmetrically with respect to a first plane, each turbine comprising a number N of blades equal to or greater than 2 comprising central parts and profiled arms ; the axes of rotation (A, A') of the blades of the turbines being contained in a second plane perpendicular to the first plane, the central parts of the blades in rotation describing cylinders around the axes (A, A') and being extended at the ends by the arms, the arms also being linked to axle elements by pivot linkages , the arms being perpendicular to the axes of rotation (A, A') of the blades , the central part of each blade being linked to each arm via a profiled elbow portion , in which, for each blade , the height of the central part of the blade measured parallel to the axis of rotation (A, A') of the blade, is greater than or equal to 2/3 of the height, measured parallel to the axis of rotation (A, A') of the blade, between the two arms linked to the central part of the blade and in which each turbine is supported by two horizontal fairings, upper and lower (42, 44; 126, 128) equipped with support structure and does not comprise a shaft linking the axle elements together; and - a structure for bearing the turbines composed comprising said upper and lower horizontal fairings equipped with support structures, linked to a vertical median pylon between the turbines.
Method for manufacturing a spintronic device comprising at least a non-magnetic spacer , a reference layer and a storage layer comprising at least one magnetic pillar comprising the following steps: - Depositing at least one sacrificial layer of thickness at least equal to that of the magnetic pillar that it is desired to form on a substrate comprising at least one conductive zone emerging on the surface of the substrate; - Forming at least one flared cavity , traversing said sacrificial layer , the base of which is facing the surface of said conductive zone of the substrate; - Depositing at least one magnetic layer in said cavity, of thickness at least equal to that of the magnetic pillar that it is desired to form; - Eliminating the excess of magnetic layer outside of the cavity and planarizing the surface of said magnetic layer to reach the targeted magnetic pillar thickness; - Removing at least a part of the sacrificial layer in order to form, from the remaining magnetic layer, at least one magnetic pillar forming all or part of the storage layer of said spintronic device; - Depositing at least the non-magnetic spacer and the reference layer such that each magnetic pillar is surmounted by an element comprising at least said non-magnetic spacer and said reference layer ; - Filling the spaces between the magnetic pillars with a dielectric material ; - Carrying out a polishing to eliminate the excess of dielectric filling material deposited at the preceding step in order to have access to an upper surface of the element surmounting each pillar ; - Forming an electrical contact on the surface of the element surmounting each magnetic pillar . - Depositing at least one sacrificial layer of thickness at least equal to that of the magnetic pillar that it is desired to form on a substrate comprising at least one conductive zone emerging on the surface of the substrate; - Forming at least one flared cavity , traversing said sacrificial layer , the base of which is facing the surface of said conductive zone of the substrate; - Depositing at least one magnetic layer in said cavity, of thickness at least equal to that of the magnetic pillar that it is desired to form; - Eliminating the excess of magnetic layer outside of the cavity and planarizing the surface of said magnetic layer to reach the targeted magnetic pillar thickness; - Removing at least a part of the sacrificial layer in order to form, from the remaining magnetic layer, at least one magnetic pillar forming all or part of the storage layer of said spintronic device; - Depositing at least the non-magnetic spacer and the reference layer such that each magnetic pillar is surmounted by an element comprising at least said non-magnetic spacer and said reference layer ; - Filling the spaces between the magnetic pillars with a dielectric material ; - Carrying out a polishing to eliminate the excess of dielectric filling material deposited at the preceding step in order to have access to an upper surface of the element surmounting each pillar ; - Forming an electrical contact on the surface of the element surmounting each magnetic pillar .
A method for enriching an aqueous ethanolic solution in ethanol, comprising the steps of: a. Providing a forward osmosis membrane module comprising a first chamber, a second chamber and a semi-permeable membrane separating the first and the second chamber, b. Coupling an inlet of the first chamber fluidly to a source of an aqueous ethanolic solution, c. Coupling an inlet of the second chamber fluidly to a source for a concentrated draw solution, and d. Recovering an aqueous ethanolic solution enriched in ethanol at an outlet of the first chamber and a diluted draw solution at the outlet of the second chamber, wherein the forward osmosis membrane module is a hollow fiber (HF) module, the semi-permeable membrane comprises a support layer covered by a Thin Film Composite (TFC) layer, and aquaporin water channels are incorporated into the TFC layer of the semipermeable membrane, and wherein the TFC layer is obtained by interfacial polymerization of a polyfunctional amine and a polyfunctional acyl halide. a. Providing a forward osmosis membrane module comprising a first chamber, a second chamber and a semi-permeable membrane separating the first and the second chamber, b. Coupling an inlet of the first chamber fluidly to a source of an aqueous ethanolic solution, c. Coupling an inlet of the second chamber fluidly to a source for a concentrated draw solution, and d. Recovering an aqueous ethanolic solution enriched in ethanol at an outlet of the first chamber and a diluted draw solution at the outlet of the second chamber, wherein the forward osmosis membrane module is a hollow fiber (HF) module, the semi-permeable membrane comprises a support layer covered by a Thin Film Composite (TFC) layer, and aquaporin water channels are incorporated into the TFC layer of the semipermeable membrane, and wherein the TFC layer is obtained by interfacial polymerization of a polyfunctional amine and a polyfunctional acyl halide.
Use of inhibiting calcium carbonate as an additive for a composition containing at least one polymer different from cellulose in an implant, characterized in that the inhibiting calcium carbonate is obtained by a method in which calcium carbonate particles are coated with a composition that contains, each relative to its total weight, a mixture of at least 0.1 wt.-% of at least one calcium complexing agent and/or at least one conjugate base which is an alkali metal salt or calcium salt of a weak acid, together with at least 0.1 wt.-% of at least one weak acid.