mhurhangee/ep-ind-claims huggingface dataset:
Semiconductor light module comprising integrated drive electronics, wherein the semiconductor light module comprises a heat-conducting, electrically conducting material, on which a circuit board is located, wherein the circuit board comprises at least two conductor track levels, the first level is oriented outward in the light emission direction in the installed state and the second level inward, characterized in that at least one semiconductor light source is applied to the disc-shaped semiconductor light module, and the circuit board with the drive electronics is positioned around the semiconductor light source, wherein the second level is enclosed by a closed cavity incorporated into the semiconductor light module, and wherein the ground-carrying lines of the circuit board are electrically connected to the surface of the semiconductor light module.
A method for introducing a soil penetrating tool into a soil using a variable weight load device coupled to the soil penetration tool, the method comprising: a penetration phase during which the soil penetrating tool is at least partially driven into the soil with the variable weight load device providing a penetration phase weight which acts on the soil penetrating tool, and a pulling phase during which the soil penetrating tool is at least partially pulled out of the soil with the variable weight load device providing a pulling phase weight which acts on the soil penetrating tool and which is lower than the penetration phase weight; wherein the variable weight load device includes at least one liquid storage reservoir and wherein: the at least one liquid storage reservoir is filled with a liquid in order to provide the penetration phase weight; the liquid is at least partially removed from the at least one liquid storage reservoir in order to provide the pulling phase weight. a penetration phase during which the soil penetrating tool is at least partially driven into the soil with the variable weight load device providing a penetration phase weight which acts on the soil penetrating tool, and a pulling phase during which the soil penetrating tool is at least partially pulled out of the soil with the variable weight load device providing a pulling phase weight which acts on the soil penetrating tool and which is lower than the penetration phase weight; the at least one liquid storage reservoir is filled with a liquid in order to provide the penetration phase weight; the liquid is at least partially removed from the at least one liquid storage reservoir in order to provide the pulling phase weight.
An amphibious unicycle, comprising an annular casing having an accommodation cavity; the accommodation cavity is configured inside with a power system for driving the unicycle; characterised in that two sides of the annular casing are provided with two openings respectively; the openings are communicated with the accommodation cavity; doors are arranged at the openings for sealing the openings; the doors are rotatably connected with the annular casing; two sides of the annular casing are provided with external rotor motors annularly respectively; external rotors of the external rotor motors are provided with a plurality of drainage holes arranged around a periphery of the external rotors.
A method of determining a microbiological risk level in a food batch of a plurality of sets (s) of samples, the method comprising obtaining microbiological sampling data from the plurality of sets of samples, determining a zero-inflated binomial distribution of the microbiological sampling data comprising determining ZIB distribution parameters (π, p) comprising a first parameter (p) and a zero-inflation parameter (π), wherein determining the ZIB distribution parameters comprises i) determining cumulative relative frequencies (fo, f 1, f 2,.., f x) for a number of occurrences (0, 1, 2,..., x) of defective samples in respective sets of samples, wherein the cumulative relative frequency of non-defective samples is determined as f 0, ii) calculating a plurality of vectors of a sub-set of zero-inflation parameters ( π) of k+1 elements according to; π = [0, 1 ∗ f 0 /k, 2 ∗ f 0 /k,..., k ∗ f 0 /k], iii) calculating a plurality of vectors of a sub-set of first parameters ( p) based on the sub-set of zero-inflation parameter ( π) according to; p = 1 − f 0 − π 1 − π N iv) for the plurality of vector pairs ( p, π) in the sub-set of first parameters and the sub-set of zero-inflation parameters, determining for each a square error between said cumulative relative frequencies and cumulative theoretical probabilities P x of having ≤ x occurrences over N samples for a ZIB distribution with the respective vector pair ( p, π) as parameters, v) determining the zero-inflation parameter (π) and the first parameter (p) as the vector pair (p, π) providing the least square error, the method comprising determining the ZIB distribution based on the first parameter (p) and the zero-inflation parameter (π), and detecting a deviation from the ZIB distribution for a subsequent food batch of samples for determining the microbiological risk level based on said deviation. i) determining cumulative relative frequencies (fo, f 1, f 2,.., f x) for a number of occurrences (0, 1, 2,..., x) of defective samples in respective sets of samples, wherein the cumulative relative frequency of non-defective samples is determined as f 0, ii) calculating a plurality of vectors of a sub-set of zero-inflation parameters ( π) of k+1 elements according to; π = [0, 1 ∗ f 0 /k, 2 ∗ f 0 /k,..., k ∗ f 0 /k], iii) calculating a plurality of vectors of a sub-set of first parameters ( p) based on the sub-set of zero-inflation parameter ( π) according to; p = 1 − f 0 − π 1 − π N iv) for the plurality of vector pairs ( p, π) in the sub-set of first parameters and the sub-set of zero-inflation parameters, determining for each a square error between said cumulative relative frequencies and cumulative theoretical probabilities P x of having ≤ x occurrences over N samples for a ZIB distribution with the respective vector pair ( p, π) as parameters, v) determining the zero-inflation parameter (π) and the first parameter (p) as the vector pair (p, π) providing the least square error, the method comprising
Method for feeding the electric power of a wind park comprising several wind turbines into an electric supply network, comprising the steps of - feeding the electric power at a network connection point, - recording at least one network state parameter at the network connection point by means of a park control unit and, - checking the supply network for the presence of a transient process characterized in that - sending at an increased clock rate of the values measured by the park control unit and/or of the control values (i QS1, i QS2, i QS3) determined by the park control unit to the wind turbines is carried out, once the presence of a transient process has been detected. - feeding the electric power at a network connection point, - recording at least one network state parameter at the network connection point by means of a park control unit and, - checking the supply network for the presence of a transient process characterized in that - sending at an increased clock rate of the values measured by the park control unit and/or of the control values (i QS1, i QS2, i QS3) determined by the park control unit to the wind turbines is carried out, once the presence of a transient process has been detected.
Method for determining the colour deviation of at least one print decoration applied to at least one carrier material from a print template Comprising the steps - Recording of at least one NIR spectrum of several reference samples with the print template using at least one NIR measuring head in a wavelength range between 900 nm and 2500 nm, - Applying the at least one printed decoration to the at least one carrier material by means of printing, - recording at least one NIR spectrum of the carrier material printed with the print decoration using the at least one NIR measuring head in a wavelength range between 900 nm and 2500 nm, and - Determining the colour deviation of the print decor from the print template in a wavelength range between 1350 and 1600 nm with a parallel shift of the measured NIR spectra of the print decor from the measured NIR spectra of the print template, or - Determining the colour deviation of the print decor from the print template in different wavelength ranges, where the wavelength range of the print decor is between 1100 and 1200 nm and the wavelength range of the print template is between 1400 and 1600 nm. - Recording of at least one NIR spectrum of several reference samples with the print template using at least one NIR measuring head in a wavelength range between 900 nm and 2500 nm, - Applying the at least one printed decoration to the at least one carrier material by means of printing, - recording at least one NIR spectrum of the carrier material printed with the print decoration using the at least one NIR measuring head in a wavelength range between 900 nm and 2500 nm, and - Determining the colour deviation of the print decor from the print template in a wavelength range between 1350 and 1600 nm with a parallel shift of the measured NIR spectra of the print decor from the measured NIR spectra of the print template, or - Determining the colour deviation of the print decor from the print template in different wavelength ranges, where the wavelength range of the print decor is between 1100 and 1200 nm and the wavelength range of the print template is between 1400 and 1600 nm.
A process of producing fibers for a disposable article characterized in that it comprises: producing fibers by melt spinning a composition comprising an intimate admixture of (a) a thermoplastic polymer; and (b) a wax having a melting point greater than 25°C, wherein the wax is dispersed within said thermoplastic polymer such that the wax has a droplet size of less than 2 μm (as determined by SEM according to the description) within the thermoplastic polymer. producing fibers by melt spinning a composition comprising an intimate admixture of (a) a thermoplastic polymer; and (b) a wax having a melting point greater than 25°C, wherein the wax is dispersed within said thermoplastic polymer such that the wax has a droplet size of less than 2 μm (as determined by SEM according to the description) within the thermoplastic polymer. (a) a thermoplastic polymer; and (b) a wax having a melting point greater than 25°C, wherein the wax is dispersed within said thermoplastic polymer such that the wax has a droplet size of less than 2 μm (as determined by SEM according to the description) within the thermoplastic polymer.
A process for producing an ammonia synthesis gas, said process comprising the steps of: - Reforming a hydrocarbon feed in a reforming section thereby obtaining a synthesis gas comprising CH 4, CO, CO 2, H 2 and H 2 O - Shifting the synthesis gas in a shift section comprising one or more shift steps in series - Optionally washing the synthesis gas leaving the shift section with water - Sending a process condensate originating from cooling and the optional washing the synthesis gas leaving the shift section to a process condensate stripper, wherein dissolved shift byproducts and dissolved gases are stripped out of the process condensate using steam resulting in a steam stream, - Adding at least part of said steam stream from the process condensate stripper to the synthesis gas downstream the reforming section, upstream the last shift step, wherein - The steam/carbon ratio in the reforming step and the shift steps is less than 2.6. - Reforming a hydrocarbon feed in a reforming section thereby obtaining a synthesis gas comprising CH 4, CO, CO 2, H 2 and H 2 O - Shifting the synthesis gas in a shift section comprising one or more shift steps in series - Optionally washing the synthesis gas leaving the shift section with water - Sending a process condensate originating from cooling and the optional washing the synthesis gas leaving the shift section to a process condensate stripper, wherein dissolved shift byproducts and dissolved gases are stripped out of the process condensate using steam resulting in a steam stream, - Adding at least part of said steam stream from the process condensate stripper to the synthesis gas downstream the reforming section, upstream the last shift step, wherein - The steam/carbon ratio in the reforming step and the shift steps is less than 2.6.
A method comprising: receiving, by a processor, aircraft state information from at least one aircraft (12, 13), the aircraft state information including position information for the at least one aircraft (12, 13); the method being characterized in that it further comprises: determining, by the processor and based on the aircraft state information, that the at least one aircraft (12, 13) is landing or taking off; determining, by the processor, the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft (12, 13); determining, by the processor, a location of a runway based on the received aircraft state information, wherein determining the location of the runway comprises deriving coordinates of one or more points of the runway based on the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft; and after determining the location of the runway, storing the determined location of the runway in a memory. receiving, by a processor, aircraft state information from at least one aircraft (12, 13), the aircraft state information including position information for the at least one aircraft (12, 13); the method being characterized in that it further comprises: determining, by the processor and based on the aircraft state information, that the at least one aircraft (12, 13) is landing or taking off; determining, by the processor, the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft (12, 13); determining, by the processor, a location of a runway based on the received aircraft state information, wherein determining the location of the runway comprises deriving coordinates of one or more points of the runway based on the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft; and after determining the location of the runway, storing the determined location of the runway in a memory. determining, by the processor and based on the aircraft state information, that the at least one aircraft (12, 13) is landing or taking off; determining, by the processor, the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft (12, 13); determining, by the processor, a location of a runway based on the received aircraft state information, wherein determining the location of the runway comprises deriving coordinates of one or more points of the runway based on the position information for the at least one aircraft (12, 13) corresponding to the landing or take off of the respective aircraft; and after determining the location of the runway, storing the determined location of the runway in a memory.
An image forming apparatus, comprising: an image forming section configured to form an image using a toner supplied from a toner cartridge; a remaining amount acquisition section configured to acquire a remaining amount of the toner in the toner cartridge; a determining section configured to determine whether or not the toner cartridge satisfies a predetermined condition; and a deciding section configured to decide a toner cartridge to be subjected to a determination processing by the determining section based on the remaining amount; characterized in that two or more toner cartridge housing sections for accommodating toner cartridges, wherein the remaining amount acquisition section acquires a remaining amount of toner in each toner cartridge accommodated in the toner cartridge housing sections, the deciding section selects only a predetermined number of toner cartridge housing sections for accommodating the toner cartridges with lesser remaining amount of the toner acquired by the remaining amount acquisition section when the power supply of the image forming apparatus is turned off from the toner cartridge housing sections corresponding to lesser remaining amounts of the toner, and the deciding section further identifies a toner cartridge accommodated in the toner cartridge housing section as a target of determination processing by the determining section when the power supply of the image forming apparatus is turned on. an image forming section configured to form an image using a toner supplied from a toner cartridge; a remaining amount acquisition section configured to acquire a remaining amount of the toner in the toner cartridge; a determining section configured to determine whether or not the toner cartridge satisfies a predetermined condition; and a deciding section configured to decide a toner cartridge to be subjected to a determination processing by the determining section based on the remaining amount; characterized in that two or more toner cartridge housing sections for accommodating toner cartridges, wherein the remaining amount acquisition section acquires a remaining amount of toner in each toner cartridge accommodated in the toner cartridge housing sections, the deciding section selects only a predetermined number of toner cartridge housing sections for accommodating the toner cartridges with lesser remaining amount of the toner acquired by the remaining amount acquisition section when the power supply of the image forming apparatus is turned off from the toner cartridge housing sections corresponding to lesser remaining amounts of the toner, and the deciding section further identifies a toner cartridge accommodated in the toner cartridge housing section as a target of determination processing by the determining section when the power supply of the image forming apparatus is turned on.
An apparatus for producing a high-purity gas, the apparatus comprising: a column configured to perform a sorption-enhanced reaction for removing a reaction by-product produced through a catalyst reaction by using an adsorbent, wherein the column is divided into a front section and a rear section on the path along which the reaction progresses after the synthesis gas is flowed in, the front section having the catalyst and the adsorbent in a ratio between 6:4 and 9:1, and a rear section having the catalyst and the adsorbent in a ratio between 4:6 and 1:9, the ratio of the catalyst and the adsorbent for the rear section being an inverse of the ratio of the catalyst and the adsorbent for the front section, the ratio being a ratio of weight percentages of the catalyst and the adsorbent with respect to the total weight of the catalyst and the adsorbent, wherein the sorption enhanced reaction is a sorption-enhanced water-gas shift (SE-WGS) reaction for producing hydrogen from a synthesis gas and removing a by-product of carbon dioxide. a column configured to perform a sorption-enhanced reaction for removing a reaction by-product produced through a catalyst reaction by using an adsorbent, wherein the column is divided into a front section and a rear section on the path along which the reaction progresses after the synthesis gas is flowed in, the front section having the catalyst and the adsorbent in a ratio between 6:4 and 9:1, and a rear section having the catalyst and the adsorbent in a ratio between 4:6 and 1:9, the ratio of the catalyst and the adsorbent for the rear section being an inverse of the ratio of the catalyst and the adsorbent for the front section, the ratio being a ratio of weight percentages of the catalyst and the adsorbent with respect to the total weight of the catalyst and the adsorbent, wherein the sorption enhanced reaction is a sorption-enhanced water-gas shift (SE-WGS) reaction for producing hydrogen from a synthesis gas and removing a by-product of carbon dioxide.
An extra-oral dental x-ray imaging system, for performing a partial CT or partial 3D image of a region of interest of an object, the system comprising: a) an x-ray source for exposing an object to x-rays so that the object may be imaged during the exposure; b) a x-ray imaging device suitable for producing multiple radiated image frames during at least part of the exposure; and c) a manipulator for moving the imaging device and the x-ray source along a path between plural positions corresponding to plural radiated image frames during the exposure, the manipulator enabling movement of both the x-ray source and the imaging device by selective translation and selective rotation about at least one rotational axis located located between a focal point of the x-ray source and the x-ray imaging device; characterized by further comprising d) an additional manipulator for translating or rotating the imaging device during at least part of the exposure with respect to the rotational axis, and e) an additional manipulator for translating or rotating the x-ray source during at least part of the exposure with respect to the rotational axis. a) an x-ray source for exposing an object to x-rays so that the object may be imaged during the exposure; b) a x-ray imaging device suitable for producing multiple radiated image frames during at least part of the exposure; and c) a manipulator for moving the imaging device and the x-ray source along a path between plural positions corresponding to plural radiated image frames during the exposure, the manipulator enabling movement of both the x-ray source and the imaging device by selective translation and selective rotation about at least one rotational axis located located between a focal point of the x-ray source and the x-ray imaging device; characterized by further comprising d) an additional manipulator for translating or rotating the imaging device during at least part of the exposure with respect to the rotational axis, and e) an additional manipulator for translating or rotating the x-ray source during at least part of the exposure with respect to the rotational axis.
A prosthetic system for heart valve replacement, comprising a prosthetic valved body and an annular support structure within which the prosthetic valved body can be expanded until it meets opposition, the annular support being provided in two or more ring segments (61, 62) having terminal connection means for forming, in the condition of use of the prosthetic system, a stable and durable continuous annular structure capable of withstanding the opposition exerted by the valved prosthetic body, characterized in that each of the two or more ring segments can be inserted separately into a cardiac chamber and they are interconnectable by means of a connection system comprising pins adapted to engage in corresponding holes, wherein the annular structure formed by the connection of the two or more ring segments has predetermined shapes and dimensions, substantially coinciding with the anatomy of the annulus of the heart valve, so as to be capable of surrounding the valve in a continuous manner, and wherein each of the two or more ring segments is internally hollow to allow the passage of at least one guide wire, guide wires emerging from the ends of each of the two or more ring segments, substantially at the positions of the connection system.