mhurhangee/patent-ind-claim-en huggingface dataset:
A weaving device for the manufacture of a piece of a textile article from a continuous thread-type element, said device comprising: - a support , which is flat, or is flat and comprises one or more non-flat zone(s), preferably convex, or consists of one or more non-flat zone(s), preferably convex - winding segments , - a means suitable for positioning or removing winding segments on the support according to the outline of a shape to be manufactured corresponding to the pattern of the textile article, - a means suitable for delivering and winding the thread-type element around the winding segments, - a supply of thread-type element, - optionally a base for one or more coil (s) of a thread-type element (9, said device is characterized in that - mechanical electronic means for moving the means suitable for positioning or removing winding segments on the support and suitable for delivering and winding the thread-type element around the winding segments in three dimensions along the axes "X", "Y" and "Z" in a system of rectangular coordinates as well as on 2 axes of alpha and beta rotations in an angular system according to a predetermined sequence and pattern, and - a control system comprising a software controlling the movement of the means suitable for positioning or removing winding segments on the support and suitable for delivering and winding the thread-type element around the winding segments allowing the winding segments to be placed on the support, and to carry out the winding of the thread-type element around of said winding segments. - a support , which is flat, or is flat and comprises one or more non-flat zone(s), preferably convex, or consists of one or more non-flat zone(s), preferably convex is flat and comprises one or more non-flat zone(s), preferably convex, or consists of one or more non-flat zone(s), preferably convex - winding segments , - a means suitable for positioning or removing winding segments on the support according to the outline of a shape to be manufactured corresponding to the pattern of the textile article, - a means suitable for delivering and winding the thread-type element around the winding segments, - a supply of thread-type element, - optionally a base for one or more coil (s) of a thread-type element (9, said device is characterized in that - mechanical electronic means for moving the means suitable for positioning or removing winding segments on the support and suitable for delivering and winding the thread-type element around the winding segments in three dimensions along the axes "X", "Y" and "Z" in a system of rectangular coordinates as well as on 2 axes of alpha and beta rotations in an angular system according to a predetermined sequence and pattern, and - a control system comprising a software controlling the movement of the means suitable for positioning or removing winding segments on the support and suitable for delivering and winding the thread-type element around the winding segments allowing the winding segments to be placed on the support, and to carry out the winding of the thread-type element around of said winding segments.
An apparatus for crimping a sheet of material, the apparatus comprising a first and second facing crimping roller defining a first and second rotation axis , respectively, the first roller including: ∘ a first plurality of circumferential ridges , each ridge defining a ridge amplitude; ∘ wherein each of said first plurality of ridges is interrupted along its circumferential extension forming an interruption gap where for a given interruption angle an amplitude of the ridge differs from the ridge amplitude in the remaining circumferential extension of the ridge; characterized in that ∘ said plurality of interruption gaps forms an interruption band defining a direction of extension, said direction of extension being angled with respect to a direction defined by the first rotation axis of an angle (α) comprised between about 2° to about 25°. ∘ a first plurality of circumferential ridges , each ridge defining a ridge amplitude; ∘ wherein each of said first plurality of ridges is interrupted along its circumferential extension forming an interruption gap where for a given interruption angle an amplitude of the ridge differs from the ridge amplitude in the remaining circumferential extension of the ridge; characterized in that ∘ said plurality of interruption gaps forms an interruption band defining a direction of extension, said direction of extension being angled with respect to a direction defined by the first rotation axis of an angle (α) comprised between about 2° to about 25°.
A semiconductor structure for isolating a first area (I) of an integrated circuit from a second area (II) of the integrated circuit, the semiconductor structure comprising: - a first trench ring (T1) adjacent to the first area (I) of the integrated circuit; - a first conductive element arranged to contact the first area (I) of the integrated circuit; - a second trench ring (T2) adjacent to the second area (II) of the integrated circuit and surrounding the first trench (T1); - a second conductive element to contact the second area (II) of the integrated circuit; - a third area (III) of the integrated circuit delimited by the first and second trench rings (T1, T2); - a third conductive element to contact the third area (III) of the integrated circuit, characterized in that each conductive element is separately biased by an external power supply so as to maintain the third conductive element at an intermediate voltage level (V1) between voltage levels (V0, V2) of the first and second conductive elements . - a first trench ring (T1) adjacent to the first area (I) of the integrated circuit; - a first conductive element arranged to contact the first area (I) of the integrated circuit; - a second trench ring (T2) adjacent to the second area (II) of the integrated circuit and surrounding the first trench (T1); - a second conductive element to contact the second area (II) of the integrated circuit; - a third area (III) of the integrated circuit delimited by the first and second trench rings (T1, T2); - a third conductive element to contact the third area (III) of the integrated circuit,
A watercraft comprising a kite driven power generating system , the kite driven power generating system including: at least two kite base stations (18.1, 18.2) which are mounted displaceably about the watercraft ; each kite base station (18.1, 18.2) configured to control at least one kite (22.1, 22.2) connected thereto; each kite base station (18.1, 18.2) including means for adjusting the length of at least one kite connecting line , and, a generator for converting tractive force exerted on the at least one kite connecting line into electrical energy; an orientation subsystem for displacing each of the at least two kite base stations (18.1, 18.2) between an operative , and, an inoperative location , respectively; the operative and inoperative location being distinct locations defined about the watercraft ; wherein each of the at least two kite base stations (18.1, 18.2) is further configured to, when located in the operative location , orientate its kite (22.1, 22.2) in a wind harvesting and energy generating mode to exert a tractive force on the at least one kite connecting line sufficient to reel out the at least one kite connecting line to generate energy as it is reeled out, and to, when located in the inoperative location , orientate its kite (22.1, 22.2) in a kite retraction mode for exerting a relatively less tractive force on the at least one kite connecting line . at least two kite base stations (18.1, 18.2) which are mounted displaceably about the watercraft ; each kite base station (18.1, 18.2) configured to control at least one kite (22.1, 22.2) connected thereto; each kite base station (18.1, 18.2) including means for adjusting the length of at least one kite connecting line , and, a generator for converting tractive force exerted on the at least one kite connecting line into electrical energy; an orientation subsystem for displacing each of the at least two kite base stations (18.1, 18.2) between an operative , and, an inoperative location , respectively; the operative and inoperative location being distinct locations defined about the watercraft ; wherein each of the at least two kite base stations (18.1, 18.2) is further configured to, when located in the operative location , orientate its kite (22.1, 22.2) in a wind harvesting and energy generating mode to exert a tractive force on the at least one kite connecting line sufficient to reel out the at least one kite connecting line to generate energy as it is reeled out, and to, when located in the inoperative location , orientate its kite (22.1, 22.2) in a kite retraction mode for exerting a relatively less tractive force on the at least one kite connecting line .
Object protection grating for retrofitting in wall openings, in particular for securing a remaining cross-section of a wall opening having a cable feed-through, comprising a first lamella , comprising a second lamella arranged in a shared plane at an angle to the first lamella , the first lamella having a first plug-in recess and the second lamella having a second plug-in recess , orientated counter to the first plug-in recess , in a crossing region , in such a way that the first and second lamella can be plugged into one another, a third plug-in recess being provided on at least one end portion of the lamellae in each case, and comprising a wall connection element , which has a plug-in portion pluggable into the third plug-in recess and a fastening portion fastenable to a wall, the plug-in portion having a fourth plug-in recess and being formed in such a way that the lamellae can thereby be positively fixed to the wall. comprising a second lamella arranged in a shared plane at an angle to the first lamella , the first lamella having a first plug-in recess and the second lamella having a second plug-in recess , orientated counter to the first plug-in recess , in a crossing region , in such a way that the first and second lamella can be plugged into one another, a third plug-in recess being provided on at least one end portion of the lamellae in each case, and comprising a wall connection element , which has a plug-in portion pluggable into the third plug-in recess and a fastening portion fastenable to a wall, the plug-in portion having a fourth plug-in recess and being formed in such a way that the lamellae can thereby be positively fixed to the wall.
A method for reducing map search area requirements in a navigation system, comprising: training a learning algorithm to recognize each one of a plurality of images of different landmarks that are identified on a map; dividing an image of the map into a plurality of subsections, deriving a set of classifications for each subsection of the plurality of subsections, wherein each classification of the set of classifications is associated with at least one landmark of the different landmarks on the map; receiving at least one image from an imaging device onboard a vehicle in flight; deriving a plurality of classifications for the at least one image from the imaging device onboard the vehicle in flight, wherein the plurality of classifications describe landmarks identified in the current camera frame; comparing the plurality of classifications for the at least one image with the set of classifications for each subsection of the plurality of subsections of the map, and limiting the comparing to the subsections of the map that have a substantially similar classification to the plurality of classifications of the at least one image; and characterized in that the matching operation comprises searching for the occurrence of a classification sequence in a designated order as the vehicle in flight moves over an area. training a learning algorithm to recognize each one of a plurality of images of different landmarks that are identified on a map; dividing an image of the map into a plurality of subsections, deriving a set of classifications for each subsection of the plurality of subsections, wherein each classification of the set of classifications is associated with at least one landmark of the different landmarks on the map; receiving at least one image from an imaging device onboard a vehicle in flight; deriving a plurality of classifications for the at least one image from the imaging device onboard the vehicle in flight, wherein the plurality of classifications describe landmarks identified in the current camera frame; comparing the plurality of classifications for the at least one image with the set of classifications for each subsection of the plurality of subsections of the map, and limiting the comparing to the subsections of the map that have a substantially similar classification to the plurality of classifications of the at least one image; and characterized in that the matching operation comprises searching for the occurrence of a classification sequence in a designated order as the vehicle in flight moves over an area.
A system, comprising: a leadless medical device including an accelerometer sensor configured to sense an epicardial or endocardial acceleration (EA) signal from a portion of a heart, the EA signal indicative of one or more heart sound components; and a companion device separated from and communicatively coupled to the leadless medical device, the companion device including a processor circuit configured to generate a diastolic function indicator (DFI) using the sensed EA signal. a leadless medical device including an accelerometer sensor configured to sense an epicardial or endocardial acceleration (EA) signal from a portion of a heart, the EA signal indicative of one or more heart sound components; and a companion device separated from and communicatively coupled to the leadless medical device, the companion device including a processor circuit configured to generate a diastolic function indicator (DFI) using the sensed EA signal.
An ultrasonic flow meter comprising: - a flow tube with a through-going opening for passage of a fluid between an inlet and an outlet , comprising: - a flow pipe of a metal material, extending between the inlet and the outlet ; and - a liner of a first polymer-based material, extending along an inner surface of the flow pipe between the inlet and the outlet, - a housing providing a compartment for transducers and metering electronics, characterised in that the housing is connected to the liner by being mounted on an interface being an integrated part of the liner . - a flow tube with a through-going opening for passage of a fluid between an inlet and an outlet , comprising: - a flow pipe of a metal material, extending between the inlet and the outlet ; and - a liner of a first polymer-based material, extending along an inner surface of the flow pipe between the inlet and the outlet, - a flow pipe of a metal material, extending between the inlet and the outlet ; and - a liner of a first polymer-based material, extending along an inner surface of the flow pipe between the inlet and the outlet, - a housing providing a compartment for transducers and metering electronics,
A method for introducing an organic drilling fluid additive into an aqueous drilling fluid in a subterranean formation, the method comprising: introducing loaded microparticles into an aqueous drilling fluid, where the loaded microparticles are made by a process of absorbing at least one organic drilling fluid additive onto hybrid inorganic/organic calcium carbonate microparticles to form loaded microparticles, wherein the at least one organic drilling fluid additive is selected from the group consisting of lubricants, ROP enhancers, anti-bit balling additives, anti-accretion additives, and combinations thereof; wherein the lubricants are selected from the group consisting of mineral oils, vegetable oils, derivatized vegetable oils, animal fats and oils, derivatized animal fats and oils, olefins, paraffins, and combinations thereof; and wherein the ROP enhancers, anti-bit balling additives and anti-accretion additives are selected from the group consisting of mineral oil, vegetable oils, animal fats and oils, olefins, paraffins, polypropylene glycols by themselves and combined with surfactants, and combinations thereof; and delivering the aqueous drilling fluid into the subterranean formation. introducing loaded microparticles into an aqueous drilling fluid, where the loaded microparticles are made by a process of absorbing at least one organic drilling fluid additive onto hybrid inorganic/organic calcium carbonate microparticles to form loaded microparticles, wherein the at least one organic drilling fluid additive is selected from the group consisting of lubricants, ROP enhancers, anti-bit balling additives, anti-accretion additives, and combinations thereof; wherein the lubricants are selected from the group consisting of mineral oils, vegetable oils, derivatized vegetable oils, animal fats and oils, derivatized animal fats and oils, olefins, paraffins, and combinations thereof; and wherein the ROP enhancers, anti-bit balling additives and anti-accretion additives are selected from the group consisting of mineral oil, vegetable oils, animal fats and oils, olefins, paraffins, polypropylene glycols by themselves and combined with surfactants, and combinations thereof; and wherein the lubricants are selected from the group consisting of mineral oils, vegetable oils, derivatized vegetable oils, animal fats and oils, derivatized animal fats and oils, olefins, paraffins, and combinations thereof; and wherein the ROP enhancers, anti-bit balling additives and anti-accretion additives are selected from the group consisting of mineral oil, vegetable oils, animal fats and oils, olefins, paraffins, polypropylene glycols by themselves and combined with surfactants, and combinations thereof; and delivering the aqueous drilling fluid into the subterranean formation.
A device for the distribution of liquid over the top of a reactor bed, comprising: a liquid collection tray having a top and a bottom, having outlet ports therein; a liquid distribution tray in fluid communication with the collection tray outlet ports and affixed the bottom of the liquid collection tray thereby creating a mixing chamber between the collection tray and the distribution tray , and where the distribution tray has a plurality of openings on the bottom of the distribution tray; and a plurality of liquid spray nozzles , where each nozzle is disposed in an opening of the liquid distribution tray; wherein the outlet ports on the liquid collection tray are arrayed circumferentially around the liquid collection tray , and are oriented to deliver the liquid from the liquid collection tray in a direction perpendicular to the radial direction and with a circumferential component; and wherein each liquid spray nozzle includes a vapor pipe for educing liquid through the liquid spray nozzle , wherein each vapor pipe has a first opening in fluid communication with the space below the liquid distribution tray and a second opening in fluid communication with the space above the liquid collection tray . a liquid distribution tray in fluid communication with the collection tray outlet ports and affixed the bottom of the liquid collection tray thereby creating a mixing chamber between the collection tray and the distribution tray , and where the distribution tray has a plurality of openings on the bottom of the distribution tray; and a plurality of liquid spray nozzles , where each nozzle is disposed in an opening of the liquid distribution tray; wherein the outlet ports on the liquid collection tray are arrayed circumferentially around the liquid collection tray , and are oriented to deliver the liquid from the liquid collection tray in a direction perpendicular to the radial direction and with a circumferential component; and wherein each liquid spray nozzle includes a vapor pipe for educing liquid through the liquid spray nozzle , wherein each vapor pipe has a first opening in fluid communication with the space below the liquid distribution tray and a second opening in fluid communication with the space above the liquid collection tray .
A circuit for managing power and heat of a Central Processing Unit, comprising: a motherboard voltage regulator to supply a current to a loadline ; a sense point coupled to the loadline, the circuit to measure a sensed voltage at the sense point; a comparator to compare the sensed voltage to a reference voltage, an output of the comparator to indicate a level of current being provided by the motherboard voltage regulator; a second line coupled to the motherboard voltage regulator; a precision resistor at the sense point; an amplifier to cancel out temperature-related variation in the resistance of the loadline by controlling a transistor coupled to an output of the amplifier to increase or decrease a current in the second line, wherein the loadline and the second line are each coupled to an input of the amplifier, and the precision resistor is coupled to the transistor; and a switch to change between voltage mode sensing and current mode sensing. a motherboard voltage regulator to supply a current to a loadline ; a sense point coupled to the loadline, the circuit to measure a sensed voltage at the sense point; a comparator to compare the sensed voltage to a reference voltage, an output of the comparator to indicate a level of current being provided by the motherboard voltage regulator; a second line coupled to the motherboard voltage regulator; a precision resistor at the sense point; an amplifier to cancel out temperature-related variation in the resistance of the loadline by controlling a transistor coupled to an output of the amplifier to increase or decrease a current in the second line, wherein the loadline and the second line are each coupled to an input of the amplifier, and the precision resistor is coupled to the transistor; and a switch to change between voltage mode sensing and current mode sensing.