mhurhangee/ep-ind-claims huggingface dataset:
A method for generating redundancy information related to data to be transmitted in a DVB-SH system using multi-protocol encapsulation with an inter-burst forward error correction algorithm, the method comprising rearranging said data by interleaving it; generating redundancy information pertaining to said interleaved data by means of said forward error correction algorithm; and rearranging said redundancy information by interleaving it, characterized in that said interleaving (601, 603) is performed using single-bit granularity, said interleaving (601, 603) being applied to a data table containing said data or said redundancy information, in which every byte column is treated as a set of 8 bit columns with index c i and by expressing each byte in binary form, and in that at least one of said rearranging of said amount of data and said rearranging of said redundancy information is conducted by transforming a table comprising C columns of said byte-sized data or redundancy information as follows: c' t = 8 nc i mod (8 C - 1), where c i is the original bit column index, c' i is the new bit column index, and n is a positive integer multiplier.
A biofilter-adsorber comprising a polluted air supply duct, a body, a polluted air filtering section consisting of plurality of filtering tubes arranged in the body, a humidification system arranged below the filtering section, systems for maintaining the temperature in the filter, and a purified air outlet, characterised in that the filtering section consists of a structural comb consisting of of plurality of tubes of porous or perforated walls filled with filtering charge consisting of activated granules of wood or coal mixed with thermally modified wood fibre, the filtering tubes being arranged vertically in the biofilter's body and perpendicularly to the direction of a polluted air flow entering the filter between the upper and the lower hermetic horizontal sheets with ends of the tubes below the lower horizontal sheet submersed in an activated liquid, thus forcing the entire polluted air flow entering the filtering section to move through the walls of the tubes and further through the filtering charge inside the tubes to the discharge duct.
A method for the dimensional control of a turbomachine component to be controlled comprising a first surface delimited by a second peripheral surface transverse to the first surface and a profile defined by a numerical theoretical model with a theoretical surface corresponding to the first surface, the first surface having larger dimensions than the second peripheral surface, the method comprising the following steps: - determining theoretical points (Pt; Pt1) on the theoretical surface of the numerical theoretical model; - calibrating calibration points (Pe; Pe1) on the first surface of the component to be controlled; - calculating an offset axis for each theoretical point (Pt; P1) with respect to a corresponding calibration point (Pe; Pe1), - acquiring control points (Pc, Pc1, Pc2) on the second peripheral surface of the component to be inspected from the offset axis. - determining theoretical points (Pt; Pt1) on the theoretical surface of the numerical theoretical model; - calibrating calibration points (Pe; Pe1) on the first surface of the component to be controlled; - calculating an offset axis for each theoretical point (Pt; P1) with respect to a corresponding calibration point (Pe; Pe1), - acquiring control points (Pc, Pc1, Pc2) on the second peripheral surface of the component to be inspected from the offset axis.
Apparatus for holding an organ for at least one of perfusion, storage, assessment and transport of the organ, comprising: a portable housing; a peristaltic pump that, if driven at a constant speed, provides an original pressure wave; a pressure sensor; a pump and pulse controller; and an organ supporting surface configured to support an organ within the housing, wherein the pump and pulse controller is configured to receive tachometer data and pressure data from the pressure sensor and convert the data into a motor drive wave, the motor drive wave being applied to a pressure wave of the pump to form a motor drive output to drive the pump; characterized in that the motor drive wave applied by the pump and pulse controller is opposite to the original pressure wave of the pump; and the pump and pulse controller is further configured: (i) to add a selected wave with a new amplitude as compared to that of the original pressure wave or (ii) to add a selected wave with a new pulse width as compared to that of the original pressure wave. a portable housing; a peristaltic pump that, if driven at a constant speed, provides an original pressure wave; a pressure sensor; a pump and pulse controller; and an organ supporting surface configured to support an organ within the housing, wherein the pump and pulse controller is configured to receive tachometer data and pressure data from the pressure sensor and convert the data into a motor drive wave, the motor drive wave being applied to a pressure wave of the pump to form a motor drive output to drive the pump; (i) to add a selected wave with a new amplitude as compared to that of the original pressure wave or (ii) to add a selected wave with a new pulse width as compared to that of the original pressure wave.
A PEG-naloxone conjugate of general formula or a pharmaceutically acceptable salt thereof: wherein n is an integer in the range of 1 to 20 or 1 to 15, or 2 to 15.
A pulse wave detection device comprising: moving image obtaining means for obtaining a moving image photographing a region including a face of a target; eye portion specifying means for specifying an eye portion of the target shown on the moving image; brightness change obtaining means for obtaining a change in brightness caused by a change in a photographing environment of the moving image from a change in a predetermined color space component of the specified eye portion; brightness correcting means for correcting the brightness of the moving image using the obtained change in the brightness; pulse wave obtaining means for obtaining a pulse wave of the target from a temporal change in the predetermined color space component in a skin portion of the target corrected as above; and output means for outputting the obtained pulse wave. moving image obtaining means for obtaining a moving image photographing a region including a face of a target; eye portion specifying means for specifying an eye portion of the target shown on the moving image; brightness change obtaining means for obtaining a change in brightness caused by a change in a photographing environment of the moving image from a change in a predetermined color space component of the specified eye portion; brightness correcting means for correcting the brightness of the moving image using the obtained change in the brightness; pulse wave obtaining means for obtaining a pulse wave of the target from a temporal change in the predetermined color space component in a skin portion of the target corrected as above; and output means for outputting the obtained pulse wave.
A recording device comprising: a reader, a processor and a writer, characterised in that: the reader is configured to read identification information visibly recorded on a recording medium; the processor is configured to: obtain, on a basis of the identification information read by the reader, historical data with use of a database in which the identification information and the historical data corresponding to each other are stored; generate second schedule information on a basis of a current time and the historical data corresponding to the recording medium; the writer is configured to rewrite schedule information visibly recorded on a recording medium and corresponding to a scheduled time from first schedule information to the second schedule information, by irradiating the recording medium with infrared light on a basis of a character pattern and a graphic pattern of the second schedule information. a reader, a processor and a writer, characterised in that: the reader is configured to read identification information visibly recorded on a recording medium; the processor is configured to: obtain, on a basis of the identification information read by the reader, historical data with use of a database in which the identification information and the historical data corresponding to each other are stored; generate second schedule information on a basis of a current time and the historical data corresponding to the recording medium; obtain, on a basis of the identification information read by the reader, historical data with use of a database in which the identification information and the historical data corresponding to each other are stored; generate second schedule information on a basis of a current time and the historical data corresponding to the recording medium; the writer is configured to rewrite schedule information visibly recorded on a recording medium and corresponding to a scheduled time from first schedule information to the second schedule information, by irradiating the recording medium with infrared light on a basis of a character pattern and a graphic pattern of the second schedule information.
A monitoring system configured for monitoring an offshore construction, the offshore construction comprising mutually mechanically coupled marine assets, the monitoring system comprising: - a data storage unit configured for storing data specifying a spatial range of at least one warning zone pertaining to said offshore construction; - an intrusion detection module configured for detecting an intrusion of said spatial range and for issuing an alert message upon such detection; - an input module configured for receiving position information for one or more of said marine assets; and - an update module configured for updating the spatial range of said at least one warning zone based on said received position information. - a data storage unit configured for storing data specifying a spatial range of at least one warning zone pertaining to said offshore construction; - an intrusion detection module configured for detecting an intrusion of said spatial range and for issuing an alert message upon such detection; - an input module configured for receiving position information for one or more of said marine assets; and - an update module configured for updating the spatial range of said at least one warning zone based on said received position information.
A bag making and packaging machine, configured to sandwich a tube-shaped film transported in a first direction between a horn and an anvil for ultrasonic sealing and transversely seal along a direction intersecting the first direction, comprising: a knife disposed in a knife movement space formed in the anvil; and a knife-driving part configured to drive the knife disposed in the knife movement space such that the knife moves toward the horn when the film is transversely sealed, and cut and separate a sealed bag from the tube-shaped film, characterized by a guide part mounted on each of both ends of the anvil and defining guide spaces thereon, the guide spaces being defined to guide movement of the knife driven by the knife-driving part, wherein a width (Dg) of the guide spaces with respect to a second direction, which is orthogonal to both a movement direction of the knife driven by the knife-driving part and a length direction of the knife, is less than a width (Da) of the knife movement space with respect to the second direction. a knife disposed in a knife movement space formed in the anvil; and a knife-driving part configured to drive the knife disposed in the knife movement space such that the knife moves toward the horn when the film is transversely sealed, and cut and separate a sealed bag from the tube-shaped film, characterized by a guide part mounted on each of both ends of the anvil and defining guide spaces thereon, the guide spaces being defined to guide movement of the knife driven by the knife-driving part, wherein a width (Dg) of the guide spaces with respect to a second direction, which is orthogonal to both a movement direction of the knife driven by the knife-driving part and a length direction of the knife, is less than a width (Da) of the knife movement space with respect to the second direction.
A medical injection molded article comprising a propylene polymer composition comprising: A) from 75 wt% to 95 wt%, of a random copolymer of propylene with ethylene, containing from 3.5 wt% to 8.5 wt%, of ethylene derived units, having a content of fraction soluble in xylene at 25°C comprised between 7.1 wt% and 15.2 wt% and having a melting point higher than 142.0°C; B) from 5 wt% to 25 wt%, of a copolymer of propylene with ethylene, containing from 8.8 wt% to 14.7 wt % of ethylene derived units; the sum A+B being 100; wherein the melt flow rate, MFR (ISO 1133 (230° C, 2.16 kg).) ranges from 0.6 g/10 min to 20.2 g/10 min. A) from 75 wt% to 95 wt%, of a random copolymer of propylene with ethylene, containing from 3.5 wt% to 8.5 wt%, of ethylene derived units, having a content of fraction soluble in xylene at 25°C comprised between 7.1 wt% and 15.2 wt% and having a melting point higher than 142.0°C; B) from 5 wt% to 25 wt%, of a copolymer of propylene with ethylene, containing from 8.8 wt% to 14.7 wt % of ethylene derived units;
A method for reducing optical noise in a photoelectric sensor configured to detect light reflected off an object, the method comprising: receiving a first light (230; 278) from a first light source (227; 270); passing the first light (230; 278) through, or reflecting the first light (230; 278) at, a first phosphor-based layer, wherein due to the passing or reflecting at least one characteristic of at least one portion of the first light (230; 278) is modified; receiving the at least one portion of the modified first light at a first light detector, wherein the at least one portion is received but does not substantially influence an output of the first light detector; emitting a second light (210; 274) from a second light source, the second light (210; 274) having a first wavelength; receiving the second light (225; 276) at the first light detector subsequent to the second light (210; 274) being reflected by an object (218; 272); and detecting the second light (225; 276). receiving a first light (230; 278) from a first light source (227; 270); passing the first light (230; 278) through, or reflecting the first light (230; 278) at, a first phosphor-based layer, wherein due to the passing or reflecting at least one characteristic of at least one portion of the first light (230; 278) is modified; receiving the at least one portion of the modified first light at a first light detector, wherein the at least one portion is received but does not substantially influence an output of the first light detector; emitting a second light (210; 274) from a second light source, the second light (210; 274) having a first wavelength; receiving the second light (225; 276) at the first light detector subsequent to the second light (210; 274) being reflected by an object (218; 272); and detecting the second light (225; 276).
An information processing system for image correction, comprising circuitry configured to: input an image which is captured with an image acquisition section, determine whether the image deviates from at least one desired image capture condition, identify a deviation amount of the image relative to the at least one desired image capture condition, generate a deformed image in which a deviation from the at least one desired image capture condition is increased by a predetermined amount over the deviation amount identified, and cause display of the deformed image for guiding a user viewing the deformed image to correct the deviation from the at least one desired image capture condition, wherein the at least one desired image capture condition includes an alignment of a subject in the image with a central line of the image, and the deviation amount is a difference between the central line of the image and a central line of the subject, wherein the circuitry determines the predetermined amount with which the deviation amount is changed using an interpolation function, wherein the interpolation function is a spline interpolation function, and wherein the at least one desired image capture condition includes a desired eye opening state of a subject in the image, and the deviation amount is a difference between an actual eye opening state of the subject and the desired eye opening state, the circuitry determines the predetermined amount with which the deviation amount is changed using an interpolation function, wherein the interpolation function is a non-linear step-wise interpolation function. input an image which is captured with an image acquisition section, determine whether the image deviates from at least one desired image capture condition, identify a deviation amount of the image relative to the at least one desired image capture condition, generate a deformed image in which a deviation from the at least one desired image capture condition is increased by a predetermined amount over the deviation amount identified, and cause display of the deformed image for guiding a user viewing the deformed image to correct the deviation from the at least one desired image capture condition, wherein the at least one desired image capture condition includes an alignment of a subject in the image with a central line of the image, and the deviation amount is a difference between the central line of the image and a central line of the subject, wherein the circuitry determines the predetermined amount with which the deviation amount is changed using an interpolation function, wherein the interpolation function is a spline interpolation function, and wherein the at least one desired image capture condition includes a desired eye opening state of a subject in the image, and the deviation amount is a difference between an actual eye opening state of the subject and the desired eye opening state, the circuitry determines the predetermined amount with which the deviation amount is changed using an interpolation function, wherein the interpolation function is a non-linear step-wise interpolation function.
A process for separation of an olefin from a paraffin in a product stream from a dehydrogenation system having a steam turbine driven dehydrogenation reactor product compressor, comprising the steps of: feeding a stream comprised of a mixture of an olefin and a paraffin to a product splitter column having a product splitter column reboiler to produce an overhead stream and a bottoms stream; splitting the bottoms stream into a recycle stream and a return stream; splitting the bottoms return stream into a first bottom return stream and a second bottom returns stream and feeding the first bottoms return stream to the product splitter column reboiler; feeding the second bottoms return stream to a heat exchanger; heating the second bottoms return stream by heat exchange contact with a refrigerant circulated through a refrigerant loop having a steam turbine driven refrigeration compressor; feeding the heated second bottoms return stream to the product splitter column; and feeding the exhaust steam from the steam turbine driven dehydrogenation reactor product compressor and the exhaust steam from the steam turbine driven refrigeration compressor to the product splitter column reboiler to provide heat to the product splitter column feeding a stream comprised of a mixture of an olefin and a paraffin to a product splitter column having a product splitter column reboiler to produce an overhead stream and a bottoms stream; splitting the bottoms stream into a recycle stream and a return stream; splitting the bottoms return stream into a first bottom return stream and a second bottom returns stream and feeding the first bottoms return stream to the product splitter column reboiler; feeding the second bottoms return stream to a heat exchanger; heating the second bottoms return stream by heat exchange contact with a refrigerant circulated through a refrigerant loop having a steam turbine driven refrigeration compressor; feeding the heated second bottoms return stream to the product splitter column; and feeding the exhaust steam from the steam turbine driven dehydrogenation reactor product compressor and the exhaust steam from the steam turbine driven refrigeration compressor to the product splitter column reboiler to provide heat to the product splitter column
A method for preparing -α-ethyl-2-oxo-1-pyrrolidineacetic acid, comprising the following steps: (a) adding a mixture comprising -α-ethyl-2-oxo-1-pyrrolidineacetic acid and -α-ethyl-2-oxo-1-pyrrolidineacetic acid to a strong base aqueous solution, heating to 80-95°C and stirring at this temperature for 8-12 hours; (b) adding an appropriate amount of water for dilution, cooling to 40-60°C and adjusting to pH=6.0-8.0 by adding hydrochloric acid dropwise; (c) adding activated carbon or diatomite for adsorption and decolorization while keeping a temperature of 40-60°C, and then filtering while hot to obtain a filtrate; (d) heating the filtrate and controlling the temperature in the range of 70-90°C, and adjusting to pH=1.0-2.5 by adding hydrochloric acid dropwise; and (e) cooling to 0-10°C, filtering and drying to obtain -α-ethyl-2-oxo-1-pyrrolidineacetic acid; wherein the strong base in step (a) is sodium hydroxide or potassium hydroxide. (a) adding a mixture comprising -α-ethyl-2-oxo-1-pyrrolidineacetic acid and -α-ethyl-2-oxo-1-pyrrolidineacetic acid to a strong base aqueous solution, heating to 80-95°C and stirring at this temperature for 8-12 hours; (b) adding an appropriate amount of water for dilution, cooling to 40-60°C and adjusting to pH=6.0-8.0 by adding hydrochloric acid dropwise; (c) adding activated carbon or diatomite for adsorption and decolorization while keeping a temperature of 40-60°C, and then filtering while hot to obtain a filtrate; (d) heating the filtrate and controlling the temperature in the range of 70-90°C, and adjusting to pH=1.0-2.5 by adding hydrochloric acid dropwise; and (e) cooling to 0-10°C, filtering and drying to obtain -α-ethyl-2-oxo-1-pyrrolidineacetic acid;
An electrosurgical instrument comprising: a. a first arm carrying a first and second electrode (16,18); b. a second arm opposing the first arm, the second arm comprising one of a nonconductor element or one or more conductive elements; c. a switch for selecting a monopolar or bipolar configuration; wherein either the first electrode, or the second electrode, or one of the one or more conductive elements passes energy in a monopolar mode, and at least two of the first electrode, the second electrode, or the one or more conductive elements pass energy in a bipolar mode according to the configuration selected by the switch characterized in that at least one of the first and second electrodes (16,18) is formed from two integrally formed discrete conductors (52,54) having a thermal joint therebetween. a. a first arm carrying a first and second electrode (16,18); b. a second arm opposing the first arm, the second arm comprising one of a nonconductor element or one or more conductive elements; c. a switch for selecting a monopolar or bipolar configuration;