mhurhangee/patent-ind-claim-en huggingface dataset:
Continuously transposed cable CTC extending according to a longitudinal development direction (L) and having two opposite longitudinal ends , said CTC cable comprising a plurality of strands arranged so to form at least a first and a second adjacent stacks, each extending along the longitudinal development direction (L), wherein said at least first and second stacks form a longitudinal interface therebetween, wherein the CTC cable further comprises one or more optical fibers positioned at the interface between the first and the second stacks, wherein the CTC cable comprises an insulating separator , made of electrically insulating material, at said interface extending along the longitudinal development direction (L), wherein the one or more optical fibers are inserted inside the insulating separator , characterized in that the insulating separator is made of paper or pressboard.
Prefabricated floor part (2, 102, 202, 1002, 302 a,b) for floor heating and/or cooling, comprising: - a roll-up carrier mat ; - a first tube which is attached in meander or spiral form to the carrier mat and can be rolled up together with the carrier mat, wherein the carrier mat is embodied such that the carrier mat can be cut with a hand tool, characterized in that the first tube comprises compressed air and each outer end of the first tube is provided with a shut-off valve and is further provided with sealing means, so that the compressed air is sealed and held in the first tube. - a roll-up carrier mat ; - a first tube which is attached in meander or spiral form to the carrier mat and can be rolled up together with the carrier mat, wherein the carrier mat is embodied such that the carrier mat can be cut with a hand tool,
Device for treating must in a vinification process comprising a duct for the flow of said must, having an inlet end and an outlet end , said duct having an elbow with a first section comprising said inlet end and with a second section comprising said outlet end ; characterized in that it comprises inside the duct cutting means comprising at least one rotating cutting blade interfering at least partially with the must flow; wherein said at least one rotating cutting blade is arranged with an axis of rotation substantially parallel to the first section and the cutting means comprises a bell-shaped cowl arranged so as to screen the at least one rotating cutting blade . characterized in that it comprises inside the duct cutting means comprising at least one rotating cutting blade interfering at least partially with the must flow; wherein said at least one rotating cutting blade is arranged with an axis of rotation substantially parallel to the first section and the cutting means comprises a bell-shaped cowl arranged so as to screen the at least one rotating cutting blade .
Electronic radio-frequency component for holding miniature devices , having: at least two housing subassemblies made of silicon, glass, quartz or a ceramic, which are connected to one another by means of a metal frame and enclose a cavity , and at least an input signal line and an output signal line for routing electrical radio-frequency signals into the cavity and out of the cavity , to which end the input signal line and the output signal line are each connected to a signal line plated-through hole by one of the housing parts , characterized in that a respective short-circuit plated-through hole is arranged on each side of the input signal line and the output signal line , which short-circuit plated-through hole electrically connects the metal frame to an electrical earth on at least one of the housing subassemblies of the component , wherein the electrical earth is formed on a surface of the housing subassembly (2a; 2b) or in a manner integrated therein. at least two housing subassemblies made of silicon, glass, quartz or a ceramic, which are connected to one another by means of a metal frame and enclose a cavity , and at least an input signal line and an output signal line for routing electrical radio-frequency signals into the cavity and out of the cavity , to which end the input signal line and the output signal line are each connected to a signal line plated-through hole by one of the housing parts , characterized in that a respective short-circuit plated-through hole is arranged on each side of the input signal line and the output signal line , which short-circuit plated-through hole electrically connects the metal frame to an electrical earth on at least one of the housing subassemblies of the component , wherein the electrical earth is formed on a surface of the housing subassembly (2a; 2b) or in a manner integrated therein.
A method for synchronizing network packet schedulers , comprising: receiving, by a first network packet scheduler , from each other network packet scheduler of a plurality of network packet schedulers , a virtual packet for each traffic class of a plurality of traffic classes defining relative transmission priority of network packets , each virtual packet providing a tally of network packets of the corresponding traffic class handled by the corresponding other network packet scheduler ; receiving , by the first network packet scheduler , a network packet of a first traffic class of the plurality of traffic classes; queueing , by the first network packet scheduler , each virtual packet for transmission into a virtual connection of a plurality of virtual connections created for each traffic class; scheduling , by the first network packet scheduler , a network packet or a virtual packet as a next packet in a buffer for transmission; determining , by the first network packet scheduler , that the next packet in the buffer is a virtual packet ; and discarding , by the first network packet scheduler , the virtual packet , responsive to the determination that the next packet in the buffer is a virtual packet . receiving, by a first network packet scheduler , from each other network packet scheduler of a plurality of network packet schedulers , a virtual packet for each traffic class of a plurality of traffic classes defining relative transmission priority of network packets , each virtual packet providing a tally of network packets of the corresponding traffic class handled by the corresponding other network packet scheduler ; receiving , by the first network packet scheduler , a network packet of a first traffic class of the plurality of traffic classes; queueing , by the first network packet scheduler , each virtual packet for transmission into a virtual connection of a plurality of virtual connections created for each traffic class; scheduling , by the first network packet scheduler , a network packet or a virtual packet as a next packet in a buffer for transmission; determining , by the first network packet scheduler , that the next packet in the buffer is a virtual packet ; and discarding , by the first network packet scheduler , the virtual packet , responsive to the determination that the next packet in the buffer is a virtual packet .
A method for controlling a latch actuation electromechanical device intended to be coupled to a latch in order to electrically actuate it, the latch including a movable portion adapted to drive at least one movable primary lock of the latch into at least one first closure position (P1) where the primary lock is deployed and into a second opening position (P2) where the primary lock is retracted, the latch actuation electromechanical device comprising: - an actuation mechanism able to be coupled to the movable portion of the latch , - an electric motor to drive the actuation mechanism , - a programmable control unit configured to control at least one parameter of the electric motor selected amongst a rotational speed, a drive direction and a mechanical torque, the control unit being configured to determine a position of at least the primary lock from the determination of a variable position of the actuation mechanism , - a reference curve containing at least one profile of a variable force (F) applied by the actuation mechanism for driving the movable portion as a function of the variable position of the actuation mechanism , - a memory configured to store at least the reference curve , the method comprising the following steps: a) measurement of the variable position of the actuation mechanism , b) controlling at least one parameter of the electric motor by the control unit according to the reference curve , the drive direction of the electric motor and the variable position of the actuation mechanism . - an actuation mechanism able to be coupled to the movable portion of the latch , - an electric motor to drive the actuation mechanism , - a programmable control unit configured to control at least one parameter of the electric motor selected amongst a rotational speed, a drive direction and a mechanical torque, the control unit being configured to determine a position of at least the primary lock from the determination of a variable position of the actuation mechanism , - a reference curve containing at least one profile of a variable force (F) applied by the actuation mechanism for driving the movable portion as a function of the variable position of the actuation mechanism , - a memory configured to store at least the reference curve , a) measurement of the variable position of the actuation mechanism , b) controlling at least one parameter of the electric motor by the control unit according to the reference curve , the drive direction of the electric motor and the variable position of the actuation mechanism .
A sugar paste substrate composition comprising: 50-60% fondant by weight, wherein the fondant comprises sugar and at least one of glucose syrup and dried glucose syrup; 10-15% fructooligosaccharides (FOS) by weight, wherein the FOS comprises at least one of oligofructose or oligofructan; and 20-30% starch by weight. 50-60% fondant by weight, wherein the fondant comprises sugar and at least one of glucose syrup and dried glucose syrup; 10-15% fructooligosaccharides (FOS) by weight, wherein the FOS comprises at least one of oligofructose or oligofructan; and 20-30% starch by weight.
A filter comprising: an enclosure having two cavities (I00A, I00B) separated by a wall ; a first transverse magnetic, TM, dual-mode resonator and a second TM dual-mode resonator , each TM dual-mode resonator having two modes and comprising a body having a central portion with a plurality of arms extending outwardly from the central portion; and a gradient aperture having an angle, a length, a position and a direction, formed in the wall for coupling between the two TM dual-mode resonators , wherein the gradient aperture is configured to control the coupling and to determine a position of transmission zeros relative to the passband. an enclosure having two cavities (I00A, I00B) separated by a wall ; a first transverse magnetic, TM, dual-mode resonator and a second TM dual-mode resonator , each TM dual-mode resonator having two modes and comprising a body having a central portion with a plurality of arms extending outwardly from the central portion; and a gradient aperture having an angle, a length, a position and a direction, formed in the wall for coupling between the two TM dual-mode resonators , wherein the gradient aperture is configured to control the coupling and to determine a position of transmission zeros relative to the passband.
A composition comprising: HFO-1234yf and HFO-1234ze; HFC-32 and HFC-125; and HCC-40, HCFC-22 and CFC-115. HFO-1234yf and HFO-1234ze; HFC-32 and HFC-125; and HCC-40, HCFC-22 and CFC-115.
Laser system comprising - a short pulse laser , - a spectral limitation means which receives pulsed laser radiation, emitted by the short pulse laser and having a pulse duration, and converts it into spectrally limited laser radiation which does not comprise any spectral portions beyond a limit frequency (G), - a non-linear optical element which receives the spectrally limited laser radiation and converts it, by spectral broadening, into frequency-converted laser radiation which comprises spectral portions beyond the limit frequency (G), and - an optical filter which is permeable for the spectral portions of the frequency-converted laser radiation beyond the limit frequency (G) and is impermeable for the spectrally limited laser radiation, wherein the assembly constituted by the short pulse laser , the spectral limitation means , the non-linear optical element , and the optical filter , is configured effect a shortening of the pulse duration and a shift of the central wavelength of the laser radiation. - a short pulse laser , - a spectral limitation means which receives pulsed laser radiation, emitted by the short pulse laser and having a pulse duration, and converts it into spectrally limited laser radiation which does not comprise any spectral portions beyond a limit frequency (G), - a non-linear optical element which receives the spectrally limited laser radiation and converts it, by spectral broadening, into frequency-converted laser radiation which comprises spectral portions beyond the limit frequency (G), and - an optical filter which is permeable for the spectral portions of the frequency-converted laser radiation beyond the limit frequency (G) and is impermeable for the spectrally limited laser radiation,
A method of processing virtual reality data, comprising: obtaining the virtual reality data, wherein the virtual reality data represents a 360-degree view of a virtual environment; storing the virtual reality data in a file , wherein the virtual reality data is stored in the file in accordance with a file format, wherein the file format defines boxes for storing data in the file, wherein a box is an object-oriented data structure, and wherein the file format specifies placement within the file of one or more boxes storing the virtual reality data and specifies placement within the file of one or more boxes storing information associated with the virtual reality data, wherein the information associated with the virtual reality data is stored within a track box , wherein track boxes store data for one or more of audio data or video data; and storing a sample entry in the track box , wherein the sample entry is associated with one or more samples, wherein the one or more samples include at least a portion of the virtual reality data, and wherein the sample entry includes a restricted scheme information box , wherein the restricted scheme information box defines a scheme for the one or more samples as a virtual reality scheme, the restricted scheme information box providing the information required to process the one or more samples in accordance with the virtual reality scheme. obtaining the virtual reality data, wherein the virtual reality data represents a 360-degree view of a virtual environment; storing the virtual reality data in a file , wherein the virtual reality data is stored in the file in accordance with a file format, wherein the file format defines boxes for storing data in the file, wherein a box is an object-oriented data structure, and wherein the file format specifies placement within the file of one or more boxes storing the virtual reality data and specifies placement within the file of one or more boxes storing information associated with the virtual reality data, wherein the information associated with the virtual reality data is stored within a track box , wherein track boxes store data for one or more of audio data or video data; and storing a sample entry in the track box , wherein the sample entry is associated with one or more samples, wherein the one or more samples include at least a portion of the virtual reality data, and wherein the sample entry includes a restricted scheme information box , wherein the restricted scheme information box defines a scheme for the one or more samples as a virtual reality scheme, the restricted scheme information box providing the information required to process the one or more samples in accordance with the virtual reality scheme.
A device for measuring a welding force and for detecting a welding voltage during a welding process of a resistance welding device , which resistance welding device comprises a welding gun with two electrode arms (20. 1, 20.2), which two electrode arms (20.1, 20.2) consist of a lower electrode arm (20.1) and an upper electrode arm (20.2); comprising two contact sockets for placing the device at the electrode arms (20.1, 20.2), which two contact sockets consist of a lower contact socket and an upper contact socket , which lower contact socket has a lower conical recess (12.1), wherein, when the device is placed at the electrode arms (20.1, 20.2), said lower conical recess (12.1) accommodates a foremost tip of the lower electrode arm (20.1) and centers it with respect to a vertical axis (Z); comprising at least one sensor element (15.1 - 15.3) for measuring the welding force applied by the electrode arms (20.1, 20.2) during a welding process; and comprising at least one component (17.1 - 17.3) for detecting the welding voltage during the welding process; characterized in that the device comprises a coupling means , wherein, when the device is placed at the electrode arms (20.1, 20.2), said coupling means mechanically couples the device to the resistance welding device ; in that , for mechanical coupling of the device and the resistance welding device , the coupling means exerts a coupling force (K) onto the resistance welding device ; in that the device comprises a lower housing part , an upper housing part and an insulator ; in that the lower contact socket is fastened on the outside of the lower housing part ; in that the upper contact socket is fastened on the outside of the upper housing part ; in that the insulator electrically insulates the lower housing part from the upper housing part ; in that the lower housing part and the upper housing part are mechanically connected to each other by the insulator ; in that the lower housing part and the upper housing part , when connected, enclose at least one interior space (10.1 - 10.5); and in that the sensor element (15.1 - 15.3) and the component (17.1 - 17.3) are arranged in said interior space (10.1 - 10.5).
An airfoil comprising: an airfoil body ; a recessed portion of a first depth in a first side of the airfoil body , the recessed portion including: a plurality of pockets of a second depth located within the recessed portion ; and ribs of the first depth located between the pockets ; a cover configured to fit into the recessed portion such that an interior surface of the cover engages the ribs and an exterior surface of the cover is about flush with an exterior surface of the first side of the airfoil body ; and a first high energy beam weld configuration (134; 134'; 156; 160; 170) extending through the cover and into the ribs and positioned to attach the cover to the ribs , characterised in that the airfoil further comprises a second high energy beam weld configuration extending into the cover and a portion of the airfoil body adjacent the cover , wherein the second high energy beam weld configuration extends into a cavity in the recessed portion that extends around a periphery of the recessed portion . an airfoil body ; a recessed portion of a first depth in a first side of the airfoil body , the recessed portion including: a plurality of pockets of a second depth located within the recessed portion ; and ribs of the first depth located between the pockets ; a plurality of pockets of a second depth located within the recessed portion ; and ribs of the first depth located between the pockets ; a cover configured to fit into the recessed portion such that an interior surface of the cover engages the ribs and an exterior surface of the cover is about flush with an exterior surface of the first side of the airfoil body ; and a first high energy beam weld configuration (134; 134'; 156; 160; 170) extending through the cover and into the ribs and positioned to attach the cover to the ribs , characterised in that the airfoil further comprises a second high energy beam weld configuration extending into the cover and a portion of the airfoil body adjacent the cover , wherein the second high energy beam weld configuration extends into a cavity in the recessed portion that extends around a periphery of the recessed portion .
Ruminal by-pass composition suitable for ingestion by a ruminant, comprising - a non-protein nitrogen compound, and - a rumen by-pass agent, which allows ruminal by-pass of the non-protein nitrogen compound, wherein the rumen by-pass agent is a coating surrounding the non-protein nitrogen compound and said coating essentially consists of a hydrogenated vegetable oil, and the non-protein nitrogen compound is one or more compounds selected from the group consisting of urea; ammonium salts; methylene urea, biuret, acetamide, butyramide, dicyanoamide, formamide, ethylene urea, isobutanol diurea, lactosyl urea, propionamide, uric acid and urea phosphate, wherein the ratio of NPN compound to coating is from 83:17 to 75:25. - a non-protein nitrogen compound, and - a rumen by-pass agent, which allows ruminal by-pass of the non-protein nitrogen compound,
Nickel electroplating bath for depositing a decorative nickel coating on a substrate to be treated, the electroplating bath comprises at least a nickel ion source, at least one amino acid and/or at least one carboxylic acid, which is not an amino acid; wherein the total concentration of the amino acid(s) is ranging from 1 to 10 g/l, wherein the total concentration of carboxylic acid(s), which is/are not an amino acid, is ranging from 10 to 40 g/l; wherein the electroplating bath is free of boric acid; wherein the total concentration of the nickel ions is ranging from 55 to 80 g/l; and wherein the nickel electroplating bath has a chloride content ranging from 7.5 to 40 g/l, characterized in that the nickel electroplating bath further comprises - saccharin and/or a saccharin derivative in form of a saccharin salt at a concentration ranging from 1.5 to 10 g/l, and - at least a sulfonic acid and/or a derivative of a sulfonic acid in form of a sulfonic acid salt at a total concentration ranging from 0.1 to 5 g/l. - saccharin and/or a saccharin derivative in form of a saccharin salt at a concentration ranging from 1.5 to 10 g/l, and - at least a sulfonic acid and/or a derivative of a sulfonic acid in form of a sulfonic acid salt at a total concentration ranging from 0.1 to 5 g/l.
An integrated MSD connector test device, comprising: a housing; an MSD connector housed in the housing and having a first polarity contact and a second polarity contact, wherein the second polarity contact comprises two contact portions separated from each other; and a first polarity port and a second polarity port accessible from outside of the housing, the first polarity port being electrically connected to the first polarity contact, and the second polarity port being electrically connected to one of the contact portions, wherein the first polarity is a positive or negative, and correspondingly, the second polarity is a negative or positive, characterised in that the MSD connector test device further comprises a cable extending at least partially outside of the housing , two ends of the cable being electrically connected to the two contact portions respectively. a housing; an MSD connector housed in the housing and having a first polarity contact and a second polarity contact, wherein the second polarity contact comprises two contact portions separated from each other; and a first polarity port and a second polarity port accessible from outside of the housing, the first polarity port being electrically connected to the first polarity contact, and the second polarity port being electrically connected to one of the contact portions, wherein the first polarity is a positive or negative, and correspondingly, the second polarity is a negative or positive, characterised in that the MSD connector test device further comprises a cable extending at least partially outside of the housing , two ends of the cable being electrically connected to the two contact portions respectively.