mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a signal generator ; and a substrate integrated waveguide, SIW, comprising a substrate and a plurality of conductors in the substrate , the substrate including a first slot in one exterior surface of the substrate , the signal generator having two conductive output members the first slot being situated in the one exterior surface with a portion of the first slot situated between the two conductive output members of the signal generator such that a signal of the signal generator is coupled into the SIW through the first slot , the substrate including a stub at one end of the first slot , the stub comprising an opening through the exterior surface that is wider and shorter than the first slot , the substrate including a second slot near an end of the first slot opposite from the one end, the second slot being transverse to the first slot , the portion of the first slot and the two conductive output members being between the second slot and the stub . a signal generator ; and a substrate integrated waveguide, SIW, comprising a substrate and a plurality of conductors in the substrate , the substrate including a first slot in one exterior surface of the substrate , the signal generator having two conductive output members the first slot being situated in the one exterior surface with a portion of the first slot situated between the two conductive output members of the signal generator such that a signal of the signal generator is coupled into the SIW through the first slot , the substrate including a stub at one end of the first slot , the stub comprising an opening through the exterior surface that is wider and shorter than the first slot , the substrate including a second slot near an end of the first slot opposite from the one end, the second slot being transverse to the first slot , the portion of the first slot and the two conductive output members being between the second slot and the stub .
A method for producing a phosphoryl imide salt represented by the following general formula , comprising the step of performing cation exchange by bringing a phosphoryl imide salt represented by the following general formula into contact with a cation exchange resin having M 1 n + or a metal salt represented by the general formula in an organic solvent having a water content of 0.3% by mass or less: wherein M 1 n + is an alkali metal cation, an alkaline earth metal cation, a quaternary ammonium cation or a quaternary phosphonium cation, M 2 n + is a tertiary ammonium cation (a protonated form of a tertiary organic base), N is a nitrogen atom, P is a phosphorus atom, and X is a sulfur atom or a phosphorus atom, n is 1 or 2, when X is a sulfur atom, m is 2 and R 4 is absent, when X is a phosphorus atom, m is 1, B is a chloride ion, a sulfate ion, a sulfonate ion or a carbonate ion, and R 1 , R 2 , R 3 and R 4 are each independently selected from a fluorine atom, an alkyl group, an alkoxy group, an alkenyl group, an alkenyloxy group, an alkynyloxy group and an aryloxy group. wherein M 1 n + is an alkali metal cation, an alkaline earth metal cation, a quaternary ammonium cation or a quaternary phosphonium cation, M 2 n + is a tertiary ammonium cation (a protonated form of a tertiary organic base), N is a nitrogen atom, P is a phosphorus atom, and X is a sulfur atom or a phosphorus atom, n is 1 or 2, when X is a sulfur atom, m is 2 and R 4 is absent, when X is a phosphorus atom, m is 1, B is a chloride ion, a sulfate ion, a sulfonate ion or a carbonate ion, and R 1 , R 2 , R 3 and R 4 are each independently selected from a fluorine atom, an alkyl group, an alkoxy group, an alkenyl group, an alkenyloxy group, an alkynyloxy group and an aryloxy group.
A vane for a gas turbine engine , comprising: a ceramic airfoil section having an airfoil wall defining a leading edge , a trailing edge , a pressure side , and a suction side , the ceramic airfoil section having an internal cavity ; a support spar extending through the internal cavity for supporting the ceramic airfoil section , the support spar being spaced from the airfoil wall such that there is a gap therebetween, the support spar having an internal through-passage for conveying cooling air that is destined for a downstream cooling location; and a baffle disposed in the gap , the baffle being spaced apart from the airfoil wall and the support spar so as to divide the gap into a plenum space and an impingement space , wherein the plenum space is between the support spar and the baffle and is for conveying cooling air for cooling the leading edge , and the impingement space is between the baffle and the airfoil wall , the baffle having impingement holes directed toward the airfoil wall and connecting the plenum space and the impingement space , characterised in that : the internal through-passage is fluidly isolated from the gap . a ceramic airfoil section having an airfoil wall defining a leading edge , a trailing edge , a pressure side , and a suction side , the ceramic airfoil section having an internal cavity ; a support spar extending through the internal cavity for supporting the ceramic airfoil section , the support spar being spaced from the airfoil wall such that there is a gap therebetween, the support spar having an internal through-passage for conveying cooling air that is destined for a downstream cooling location; and a baffle disposed in the gap , the baffle being spaced apart from the airfoil wall and the support spar so as to divide the gap into a plenum space and an impingement space , wherein the plenum space is between the support spar and the baffle and is for conveying cooling air for cooling the leading edge , and the impingement space is between the baffle and the airfoil wall , the baffle having impingement holes directed toward the airfoil wall and connecting the plenum space and the impingement space ,
A method of imaging a sample and automatically identifying the presence of a structure in the sample, characterized by : providing a sample holder having a plasmonic layer including a periodic array of sub-micron structures; placing the sample on the sample holder adjacent the plasmonic layer ; illuminating the sample and sample holder and capturing at least one colour digital image thereof with an optical microscope, the illumination stimulating surface plasmon resonance and the sample positioned at least partially within the associated evanescent sensing field, the at least one digital image comprising a plurality of pixels which represent a two dimensional region of the sample, wherein at least one localised structural property of the sample is visible in the image based on the colour of received light captured in the at least one digital image; processing the at least one digital image, based on the received colour information to selectively identify said structure on the basis of colour differentiation and/or morphology differentiation . providing a sample holder having a plasmonic layer including a periodic array of sub-micron structures; placing the sample on the sample holder adjacent the plasmonic layer ; illuminating the sample and sample holder and capturing at least one colour digital image thereof with an optical microscope, the illumination stimulating surface plasmon resonance and the sample positioned at least partially within the associated evanescent sensing field, the at least one digital image comprising a plurality of pixels which represent a two dimensional region of the sample, wherein at least one localised structural property of the sample is visible in the image based on the colour of received light captured in the at least one digital image; processing the at least one digital image, based on the received colour information to selectively identify said structure on the basis of colour differentiation and/or morphology differentiation .
A burner comprising an air supply pipe, a central burner tube , a fuel supply pipe attached to the central burner tube , which is terminated by a front face on the side of the fuel supply pipe , the burner further comprising a support tube fixed to said front face , and a burner head mounted to said support tube at the burner outlet, the burner head being provided with nozzles arranged in a circle near to the inner perimeter of the burner head and forming the primary stage of the burner , the burner further comprising a whirler with its inner perimeter arranged onto the central burner tube at its outlet end, wherein the whirler's surface has a conical shape extending outwardly and openings , arranged in a circle, are provided in the whirler's surface , characterized in that the burner head is provided with angled grooves on the outer perimeter, which form the secondary stage of the burner .
Method of operating an electronic device associated with a bicycle component and comprising a processor and a wake unit, the method comprising the following steps executable by the processor of the electronic device: - operating alternatively in standby mode and in running mode, - switching from standby mode to running mode upon receiving a wake signal from the wake unit at predetermined wake conditions, and characterised by - before switching from the running mode to the standby mode, modifying the configuration of the wake unit by updating the predetermined wake conditions, such that the subsequent wake signal is sent to the processor at updated wake conditions. - operating alternatively in standby mode and in running mode, - switching from standby mode to running mode upon receiving a wake signal from the wake unit at predetermined wake conditions, and characterised by - before switching from the running mode to the standby mode, modifying the configuration of the wake unit by updating the predetermined wake conditions, such that the subsequent wake signal is sent to the processor at updated wake conditions.
Method of producing a thermoplastic granulate from a plurality of starting materials such as plastics material powder, aggregates, softeners, colorants, colouring pigments, lubricants, fillers and/or additives, comprising the following method steps: - selected starting materials (9a, 9b, ... 9n) for the thermoplastic granulate are metered in a predetermined mixture ratio; - thereafter the mixture is further mixed in a heating/cooling mixer , which is formed by a heating mixer and a cooling mixer , and prepared as a pourable intermediate substrate (6; 21); characterised in that - the pourable intermediate substrate (6; 21), preferably a pulverulent mixture, is then fed to a double-belt press in that it is dispersed over an area on the circulating lower belt thereof; - the dispersed intermediate substrate (6; 21) is thermally and mechanically treated in the double-belt press , whereby a single-colour or multi-colour thermoplastic strip-shaped shape-stable body (17; 22) is produced at the end of the double-belt press , and - thereafter the shape-stable body (17; 22) is comminuted to form thermoplastic granulate (11; 12; 13). - selected starting materials (9a, 9b, ... 9n) for the thermoplastic granulate are metered in a predetermined mixture ratio; - thereafter the mixture is further mixed in a heating/cooling mixer , which is formed by a heating mixer and a cooling mixer , and prepared as a pourable intermediate substrate (6; 21); - the pourable intermediate substrate (6; 21), preferably a pulverulent mixture, is then fed to a double-belt press in that it is dispersed over an area on the circulating lower belt thereof; - the dispersed intermediate substrate (6; 21) is thermally and mechanically treated in the double-belt press , whereby a single-colour or multi-colour thermoplastic strip-shaped shape-stable body (17; 22) is produced at the end of the double-belt press , and - thereafter the shape-stable body (17; 22) is comminuted to form thermoplastic granulate (11; 12; 13).
A medical observation system comprising: an observation optical system configured to guide an observation light from a subject; an imaging unit configured to receive an observation light from the observation optical system and generate an image signal; and an image processing unit configured to apply signal processing to the image signal generated by the imaging unit, wherein the image processing unit includes a filter detection unit configured to detect, based on a signal value of a color which includes a wavelength band of a specific light in a preset wavelength band of the image signal, whether or not an observation-side filter for cutting the specific light over an entirety of the imaging unit is disposed on an optical path of the observation light so light which the imaging unit receives excludes the specific light, the specific light cut by the observation-side filter being excitation light for fluorescence emission from the subject. an observation optical system configured to guide an observation light from a subject; an imaging unit configured to receive an observation light from the observation optical system and generate an image signal; and an image processing unit configured to apply signal processing to the image signal generated by the imaging unit, wherein the image processing unit includes a filter detection unit configured to detect, based on a signal value of a color which includes a wavelength band of a specific light in a preset wavelength band of the image signal, whether or not an observation-side filter for cutting the specific light over an entirety of the imaging unit is disposed on an optical path of the observation light so light which the imaging unit receives excludes the specific light, the specific light cut by the observation-side filter being excitation light for fluorescence emission from the subject.
The method of measurement of knee strength characteristics in particular in isokinetic movement characterized in that the measured person in the upright position leans with the rear side of its calves against vertically mounted dynamometers with bearing surfaces and leans with the rear side of thighs against a movable arm and starts transition from the upright position to the sitting position, thus acting on the movable arm , which monitors speed of change in angular position of the movable arm by a connected sensor of angular position and simultaneously acting on the dynamometers with the bearing surfaces , which measure the strength generated by the measured person individually for each lower extremity whereas the sensor of angular position and dynamometers transmit collected data to a control unit, which evaluates the speed of change in angular position of the movable arm and informs the measured person on the visualization equipment on the actual speed and the requested speed of change in angular position of the movable arm in a manner that the measured person adjusts the actual speed to the requested speed of transition from the upright position to the sitting position.
Apparatus for solder recover, comprising: i) a housing and a chamber for receiving dross, the chamber being mounted to the housing and being provided with an inlet for dross and an outlet through which recovered solder can pass, the outlet being provided at or near the bottom of the chamber ; ii) a heater for heating dross in the chamber ; and iii) an impeller inside the chamber for agitating heated dross, to separate good solder from the residue; and being characterised in that the outlet is provided with an additional heater which when activated, melts the solder at the outlet and allows solder to flow out of the chamber , thereby controlling the flow of solder out of the chamber , and the chamber is pivotably mounted to the housing to allow the chamber to be tilted and dross to be tipped out. i) a housing and a chamber for receiving dross, the chamber being mounted to the housing and being provided with an inlet for dross and an outlet through which recovered solder can pass, the outlet being provided at or near the bottom of the chamber ; ii) a heater for heating dross in the chamber ; and iii) an impeller inside the chamber for agitating heated dross, to separate good solder from the residue; and being characterised in that the outlet is provided with an additional heater which when activated, melts the solder at the outlet and allows solder to flow out of the chamber , thereby controlling the flow of solder out of the chamber , and the chamber is pivotably mounted to the housing to allow the chamber to be tilted and dross to be tipped out.
A big telematics data communication fault determination method for a system comprising at least one mobile device connected to a vehicular telemetry hardware system and at least one remote device , the method comprising at least one first concurrent process and at least one second concurrent process, said first concurrent process, via said at least one mobile device , determining an active mode or an inactive mode of said at least one mobile device by detecting a vehicle status, setting a communication period for communicating with said at least one remote device , and communicating at least one of a signal, data or message to said at least one remote device within said communication period, said at least one second concurrent process, via said at least one remote device , receiving from said at least one mobile device said at least one signal, data or message and determining therefrom an active mode or an inactive mode and a corresponding communication period for each of said at least one mobile device , and comparing, within a communication fault determination time frame, the number of said at least one mobile device expected communications with the number of said at least one mobile device actual communications to indicate the presence of a communication fault when the expected number is different from the actual number for each of said least one mobile device that communicated.
An additive manufacturing process , comprising: forming a first layer of build material; solidifying build material in the first layer to form a first slice; dispensing a coalescence modifier agent comprising a substance to inhibit or prevent coalescence of the build material on to the first slice covering an area where the first slice will underhang a second slice; forming a second layer of build material on the first slice; dispensing a coalescing agent on to build material in the second layer; and solidifying build material in the second layer to form the second slice on the first slice wherein solidifying build material includes dispensing a coalescing agent on to build material in a pattern of a slice and then applying light energy to the build material patterned with coalescing agent. forming a first layer of build material; solidifying build material in the first layer to form a first slice; dispensing a coalescence modifier agent comprising a substance to inhibit or prevent coalescence of the build material on to the first slice covering an area where the first slice will underhang a second slice; forming a second layer of build material on the first slice; dispensing a coalescing agent on to build material in the second layer; and solidifying build material in the second layer to form the second slice on the first slice wherein solidifying build material includes dispensing a coalescing agent on to build material in a pattern of a slice and then applying light energy to the build material patterned with coalescing agent.
A method of managing a gas turbine engine variable area fan nozzle, comprising the steps of evaluating an icing condition input to determine the likelihood of ice presence and altering a variable area fan nozzle position (P1,P2) if ice is likely present or actually present, wherein altering the variable area fan nozzle position (P1,P2) includes adjusting a fan nacelle exit area in response to an altered variable area fan nozzle position schedule, wherein the gas turbine engine comprises a fan arranged in a fan nacelle , the gas turbine engine includes a Fan Pressure Ratio of less than 1.45; the adjusting step includes translating flaps to selectively block a vent in the fan nacelle , and the icing condition relates to ice present or likely present in an area of the vent ; and in an unaltered variable area fan nozzle position schedule the flaps are at least partially open at air speeds below 0.55 Mach, and the altering step includes closing the flaps below 0.55 Mach
A barrier stand suitable for a barrier comprising a cable, the barrier stand comprising an elongate member of generally tubular form and being adapted to be mounted on a base so as to stand in a vertical position, and having a top section, at least one cable locating opening or recess extending downwardly from the top of the top section and being open at its upper end, the or each cable locating opening or recess being adapted to receive the cable of the barrier, characterised by a clamping device being located in the top section and being biased resiliently to a clamping position for clamping the cable of the barrier securely to the stand, wherein the clamping device has a clamping surface to clamp the cable of the barrier between the clamping device and the top section.
A method for producing a book-like identification, valuable or security document , wherein the identification, valuable or security document has a cover and a passport block comprising a data card , a plurality of double pages , an endsheet and a spine tape , wherein the data card has a flexible tab connected to the data card along an edge, wherein the data card with the flexible tab , the double pages , the endsheet and the spine tape are sewn together by a seam , and wherein the cover is bonded flat by an inner side thereof to an outer side of the endsheet , wherein the cover and the passport block are folded and then bonded to one another, wherein the passport blank is produced in a bonding and folding apparatus , in which the passport block and the cover are bonded to one another to form a passport blank and the passport blank is folded, wherein the passport blank is transported, individually, to an end processing apparatus after the folding and bonding, by means of a transport device that comprises a holding unit provided on a grip arm mounted multi-axially, wherein, in the end processing apparatus , the passport blank is processed by the following steps: - identifying the spine of the passport blank , - orienting the passport blank , and - processing the free edges of the passport blank , wherein the passport blank is cut to size to a defined format of a book-like identification, valuable or security document , wherein the passport blank is cut to size by means of a milling process. wherein the passport blank is produced in a bonding and folding apparatus , in which the passport block and the cover are bonded to one another to form a passport blank and the passport blank is folded, wherein the passport blank is transported, individually, to an end processing apparatus after the folding and bonding, by means of a transport device that comprises a holding unit provided on a grip arm mounted multi-axially, wherein, in the end processing apparatus , the passport blank is processed by the following steps: - identifying the spine of the passport blank , - orienting the passport blank , and - processing the free edges of the passport blank , wherein the passport blank is cut to size to a defined format of a book-like identification, valuable or security document , - identifying the spine of the passport blank , - orienting the passport blank , and - processing the free edges of the passport blank , wherein the passport blank is cut to size to a defined format of a book-like identification, valuable or security document , wherein the passport blank is cut to size by means of a milling process.