mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a multilayer card body , in particular for a portable data carrier, having the following steps: - laminating together at least a first layer and a second layer to form a laminated sheet, - separating the multilayer card body from the laminated sheet, the multilayer card body having a top surface , a bottom surface and a side surface , and - sealing the side surface of the multilayer card body during the separating step or as a step following the separating step , wherein no test for determining delamination of the layers at the side surface is performed prior to the sealing step, - characterised in that the side surface is sealed by destroying and, thereby, activating capsules which are present within or between at least one of the first layer and second layer . - laminating together at least a first layer and a second layer to form a laminated sheet, - separating the multilayer card body from the laminated sheet, the multilayer card body having a top surface , a bottom surface and a side surface , and - sealing the side surface of the multilayer card body during the separating step or as a step following the separating step , wherein no test for determining delamination of the layers at the side surface is performed prior to the sealing step, - characterised in that the side surface is sealed by destroying and, thereby, activating capsules which are present within or between at least one of the first layer and second layer .
A heart valve prosthesis comprising: a tubular stent having a compressed configuration for delivery within a vasculature and a deployed configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; one or more elements coupled to a distal end of the stent , each element including an outer generally U-shaped or V-shaped support arm and an inner generally V-shaped or U-shaped support arm that both distally extend from the distal end of the stent when the stent is in the compressed configuration, wherein during deployment of the prosthesis each support arm bends radially outward and then towards an outer surface of the stent such that it translates more than ninety degrees from the compressed configuration to proximally extend from the distal end of the stent when the stent is in the deployed configuration; a graft material coupled to at least a portion of the heart valve prosthesis ; and an anti-paravalvular leakage component including the one or more elements for sealing and an annular sealing member coupled to the one or more elements , wherein the annular sealing member comprises the graft material coupled to the one or more elements , so that the one or more elements are configured for sealing the heart valve prosthesis within the native heart valve. a tubular stent having a compressed configuration for delivery within a vasculature and a deployed configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; one or more elements coupled to a distal end of the stent , each element including an outer generally U-shaped or V-shaped support arm and an inner generally V-shaped or U-shaped support arm that both distally extend from the distal end of the stent when the stent is in the compressed configuration, wherein during deployment of the prosthesis each support arm bends radially outward and then towards an outer surface of the stent such that it translates more than ninety degrees from the compressed configuration to proximally extend from the distal end of the stent when the stent is in the deployed configuration; a graft material coupled to at least a portion of the heart valve prosthesis ; and an anti-paravalvular leakage component including the one or more elements for sealing and an annular sealing member coupled to the one or more elements , wherein the annular sealing member comprises the graft material coupled to the one or more elements , so that the one or more elements are configured for sealing the heart valve prosthesis within the native heart valve.
A transmit/receive radio frequency (RF) system for a magnetic resonance examination system comprising: - an RF antenna ; - an RF power amplifier configured to supply electrical RF power to the RF antenna ; and - a coupling device coupled between the RF power amplifier and the RF antenna and configured to couple out fractions of a reflected power flowing from the RF antenna toward the RF power amplifier and a forward power flowing from the RF power amplifier toward the RF antenna to output a first coupled signal V REV and a second coupled signal V FWD ; - a wave detector coupled to the coupling device and configured to detect amplitude and phase information of the first coupled signal V REV and the second coupled signal V FWD ; and - a parameter calculator coupled to the wave detector and configured to calculate an operational parameter of the RF power amplifier based on complex scattering parameters of the coupling device and the detected amplitude and phase information of the first coupled signal V REV and second coupled signal V FWD . - an RF antenna ; - an RF power amplifier configured to supply electrical RF power to the RF antenna ; and - a coupling device coupled between the RF power amplifier and the RF antenna and configured to couple out fractions of a reflected power flowing from the RF antenna toward the RF power amplifier and a forward power flowing from the RF power amplifier toward the RF antenna to output a first coupled signal V REV and a second coupled signal V FWD ; - a wave detector coupled to the coupling device and configured to detect amplitude and phase information of the first coupled signal V REV and the second coupled signal V FWD ; and - a parameter calculator coupled to the wave detector and configured to calculate an operational parameter of the RF power amplifier based on complex scattering parameters of the coupling device and the detected amplitude and phase information of the first coupled signal V REV and second coupled signal V FWD .
A system for the determination of the true inter-camera distance TICD between cameras mounted on separate portions of an articulated vehicle, comprising: a first camera (A); a second camera (B); and a processor configured to: receive from the first camera (A) a first image frame comprising a first image of a reference object; receive from the second camera (B) a second image frame comprising a second image of the reference object; overlay the first and second images thereby generating a composite image of the reference object; shift the first and second images until they are aligned; characterized in that the processor is further configured to calculate the TICD between the first and second cameras as a function of the distances by which first and second images are shifted during alignment, and wherein the processor is further configured to: calculate the true inter-camera distance TICD such that TICD = speed ratio ∗ shift 1 − shift 2 / speed ratio − 1 where Shift1 is the amount by which the reference point or object in the image is shifted at a first speed of the articulated vehicle, Shift2 is the amount by which the reference point or object in the second image is shifted at a second speed of the articulated vehicle and speed ratio is the ratio of the second speed to the first speed. a first camera (A); a second camera (B); and a processor configured to: receive from the first camera (A) a first image frame comprising a first image of a reference object; receive from the second camera (B) a second image frame comprising a second image of the reference object; overlay the first and second images thereby generating a composite image of the reference object; shift the first and second images until they are aligned; characterized in that the processor is further configured to calculate the TICD between the first and second cameras as a function of the distances by which first and second images are shifted during alignment, and wherein the processor is further configured to: receive from the first camera (A) a first image frame comprising a first image of a reference object; receive from the second camera (B) a second image frame comprising a second image of the reference object; overlay the first and second images thereby generating a composite image of the reference object; shift the first and second images until they are aligned; characterized in that the processor is further configured to calculate the TICD between the first and second cameras as a function of the distances by which first and second images are shifted during alignment, and wherein the processor is further configured to: calculate the true inter-camera distance TICD such that TICD = speed ratio ∗ shift 1 − shift 2 / speed ratio − 1 where Shift1 is the amount by which the reference point or object in the image is shifted at a first speed of the articulated vehicle, Shift2 is the amount by which the reference point or object in the second image is shifted at a second speed of the articulated vehicle and speed ratio is the ratio of the second speed to the first speed.
Radiator comprising at least one heating plate , in particular comprising a first heating plate on the room side facing the room to be heated and a second heating plate on the wall side, - wherein in the lateral, upper end regions of the radiator or of the heating plate(s) a respective connecting piece configured as a connection point is attached, into which in each case optionally a valve for regulating the flow of the heating fluid coming from the first flow connection into the heating plate(s) as well as a shut-off or sealing component for preventing the entry of heating fluid into the heating plate(s) and for preventing the flow can be inserted or is inserted, - wherein a first connection fitting in the form of a central connection is provided comprising a first flow connection and a first return connection , - wherein a first distributor fitting attached to the first connection fitting with a defined first riser pipe is provided, which establishes a direct, in particular the only, connection for the heating fluid flowing in via the first flow connection from the first connection fitting to the connection pieces , - wherein at least a second connection fitting with a second flow connection and optionally a second return connection is provided, characterised in that - a second distributor fitting attached to the second connection fitting with a defined second riser pipe is provided, which establishes a direct, in particular the only, connection for the heating fluid flowing in via the second flow connection from the second connection fitting to the connecting pieces . - wherein in the lateral, upper end regions of the radiator or of the heating plate(s) a respective connecting piece configured as a connection point is attached, into which in each case optionally a valve for regulating the flow of the heating fluid coming from the first flow connection into the heating plate(s) as well as a shut-off or sealing component for preventing the entry of heating fluid into the heating plate(s) and for preventing the flow can be inserted or is inserted, - wherein a first connection fitting in the form of a central connection is provided comprising a first flow connection and a first return connection , - wherein a first distributor fitting attached to the first connection fitting with a defined first riser pipe is provided, which establishes a direct, in particular the only, connection for the heating fluid flowing in via the first flow connection from the first connection fitting to the connection pieces , - wherein at least a second connection fitting with a second flow connection and optionally a second return connection is provided, - a second distributor fitting attached to the second connection fitting with a defined second riser pipe is provided, which establishes a direct, in particular the only, connection for the heating fluid flowing in via the second flow connection from the second connection fitting to the connecting pieces .
A method for improving the mobility of heavy crude oil in a porous subterranean reservoir, the method comprising: introducing a fluid formulation into the reservoir, the fluid formulation comprising water, a surfactant and a co-solvent; and producing at least one of an emulsion and a dispersion in the reservoir, the emulsion or the dispersion having a water external phase and a crude oil internal phase; wherein the surfactant is a nonionic surfactant having a hydrophile/lipophile balance of greater than 10; and wherein the co-solvent comprises butoxyethanol. introducing a fluid formulation into the reservoir, the fluid formulation comprising water, a surfactant and a co-solvent; and producing at least one of an emulsion and a dispersion in the reservoir, the emulsion or the dispersion having a water external phase and a crude oil internal phase; wherein the surfactant is a nonionic surfactant having a hydrophile/lipophile balance of greater than 10; and wherein the co-solvent comprises butoxyethanol.
Device for atomising a liquid, having a container (W) for receiving the liquid to be atomised and at least three oscillators for generating ultrasonic oscillations, which are arranged in the container (W) and have flat surfaces (F) that transmit the oscillations to the liquid, the surfaces (F) not being parallel to one another, characterised in that - the oscillators are oriented such that the first straight lines (G1) of all oscillators , which are perpendicular to the surfaces (F), are skewed relative to each other; - the first straight lines (G1), which are perpendicular to the surfaces (F) of the oscillators lie on the surface (F) of a rotational hyperboloid. - the oscillators are oriented such that the first straight lines (G1) of all oscillators , which are perpendicular to the surfaces (F), are skewed relative to each other; - the first straight lines (G1), which are perpendicular to the surfaces (F) of the oscillators lie on the surface (F) of a rotational hyperboloid.
A capacitively-coupled dual-band antenna comprising: a monopole antenna ; a patch antenna capacitively coupled to the monopole antenna ; and a non-conductive frame that supports the monopole antenna and acts as a dielectric between the monopole antenna and the patch antenna , wherein the patch antenna includes an outer circular ring in a first plane coupled to a pair of feet in a second plane that is different from the first plane via a pair of legs , wherein the monopole antenna and the outer circular ring are concentric relative to one another, wherein the pair of feet include a pair of overlapping tabs that form an extruded hole centered in a bottom of a first tab of the pair of overlapping tabs and running through a center of a top of a second tab of the pair of overlapping tabs , wherein the extruded hole is configured to receive a feed cable through the extruded hole such that a shield of the feed cable may be terminated at at least one of the pair of overlapping tabs . a monopole antenna ; a patch antenna capacitively coupled to the monopole antenna ; and a non-conductive frame that supports the monopole antenna and acts as a dielectric between the monopole antenna and the patch antenna , wherein the patch antenna includes an outer circular ring in a first plane coupled to a pair of feet in a second plane that is different from the first plane via a pair of legs , wherein the monopole antenna and the outer circular ring are concentric relative to one another, wherein the pair of feet include a pair of overlapping tabs that form an extruded hole centered in a bottom of a first tab of the pair of overlapping tabs and running through a center of a top of a second tab of the pair of overlapping tabs , wherein the extruded hole is configured to receive a feed cable through the extruded hole such that a shield of the feed cable may be terminated at at least one of the pair of overlapping tabs .
A method comprising: receiving a packet and a segment ID stack at a first segment routing enabled node of a subdivided segment routing enabled network ; wherein the segment ID stack comprises a plurality of segment IDs comprising a first area-segment ID, wherein the first area segment ID identifies a first area of the subdivided segment routing enabled network and wherein the first segment routing enabled node is in a second area of the subdivided segment routing enabled network ; selecting a next hop egress interface of the first segment routing enabled node based on the first area-segment ID; forwarding the packet and the segment ID stack via the selected next hop egress interface. receiving a packet and a segment ID stack at a first segment routing enabled node of a subdivided segment routing enabled network ; wherein the segment ID stack comprises a plurality of segment IDs comprising a first area-segment ID, wherein the first area segment ID identifies a first area of the subdivided segment routing enabled network and wherein the first segment routing enabled node is in a second area of the subdivided segment routing enabled network ; selecting a next hop egress interface of the first segment routing enabled node based on the first area-segment ID; forwarding the packet and the segment ID stack via the selected next hop egress interface.
Method of manufacturing an edible utensil comprising: - providing an elongate body in the form of an edible utensil comprising a pasta dough-based material, the elongate body being a raw macaroni noodle ; - chemically treating the elongate body ; - and after chemically treating the elongate body, thermally treating the chemically treated elongate body , wherein the edible utensil is a drinking straw, wherein the chemical treatment of the elongate body comprises providing the elongate body with an oil or oil-containing substance, wherein the thermal treatment of the elongate body comprises baking the elongate body, and wherein conditioning of the drinking straw is achieved such that it is consumable as an easily digestible pastry both during ingestion of a liquid food and after ingestion of the food. - providing an elongate body in the form of an edible utensil comprising a pasta dough-based material, the elongate body being a raw macaroni noodle ; - chemically treating the elongate body ; - and after chemically treating the elongate body, thermally treating the chemically treated elongate body ,
System for handling insect production trays , to carry out the transition between the end of a production cycle of a stack of trays with transfer of the production material of each of the trays of the end of cycle stack, the separation and collection of the constituents of the production material, and the initiation of a new production cycle with filling of the trays with production initiation material and making a new stack of cycle initiation trays , the said system comprising: i) an entry and exit gate for stacks of trays to receive and hold a stack of end of cycle trays to process and to make available a stack of cycle initiation trays ; ii) a transition station between an end of cycle for a stack of end of cycle trays and initiation of a new cycle to make a stack of cycle initiation trays , the transition station comprising: - a sieve-collector for end of cycle material to separate the constituents to collect at end of production cycle and to convey the constituents to the collection points ; - a tray filling station comprising a plurality of dispensers of constituents of production cycle initiation material; iii) a manipulator arm to separately unstack each tray from the stack of end of cycle trays to be processed, convey each tray to the sieve-collector , empty the contents of each tray into the sieve-collector, place the empty trays in an empty tray reception zone, take a newly filled tray into the filling station , send it to a stack of initiation trays being assembled and stack the trays of this stack. i) an entry and exit gate for stacks of trays to receive and hold a stack of end of cycle trays to process and to make available a stack of cycle initiation trays ; ii) a transition station between an end of cycle for a stack of end of cycle trays and initiation of a new cycle to make a stack of cycle initiation trays , the transition station comprising: - a sieve-collector for end of cycle material to separate the constituents to collect at end of production cycle and to convey the constituents to the collection points ; - a tray filling station comprising a plurality of dispensers of constituents of production cycle initiation material; - a sieve-collector for end of cycle material to separate the constituents to collect at end of production cycle and to convey the constituents to the collection points ; - a tray filling station comprising a plurality of dispensers of constituents of production cycle initiation material; iii) a manipulator arm to separately unstack each tray from the stack of end of cycle trays to be processed, convey each tray to the sieve-collector , empty the contents of each tray into the sieve-collector, place the empty trays in an empty tray reception zone, take a newly filled tray into the filling station , send it to a stack of initiation trays being assembled and stack the trays of this stack.
A wearable device, comprising: a body comprising one or more embedded electronic components, the body comprising a thermoset material having a polymeric backbone comprising at least one urethane linkage, the thermoset material having a glass transition temperature, wherein at a first temperature that is lower than the glass transition temperature, the body has an original shape; wherein when the body is heated to a second temperature that is higher than the glass transition temperature, the body is deformable from the original shape to a first shape and when the body is cooled to a third temperature that is lower than the glass transition temperature, the first shape is maintained; and wherein the body is configured to transition from the first shape to the original shape when the body is heated from the third temperature to a fourth temperature that is higher than the glass transition temperature. a body comprising one or more embedded electronic components, the body comprising a thermoset material having a polymeric backbone comprising at least one urethane linkage, the thermoset material having a glass transition temperature, wherein at a first temperature that is lower than the glass transition temperature, the body has an original shape; wherein when the body is heated to a second temperature that is higher than the glass transition temperature, the body is deformable from the original shape to a first shape and when the body is cooled to a third temperature that is lower than the glass transition temperature, the first shape is maintained; and wherein the body is configured to transition from the first shape to the original shape when the body is heated from the third temperature to a fourth temperature that is higher than the glass transition temperature.