mhurhangee/ep-ind-claims huggingface dataset:
A system to remove a bushing from a bore, comprising: an alignment tool configured to fit within an inner cavity of the bushing, the alignment tool having a first guide; a cutter tool configured to travel via the first guide; and the system further comprising a second guide configured to receive the cutter tool, wherein the first guide and the second guide both extend inwardly from an outer surface of the alignment tool; and characterised in that wherein the cutter tool removes material from an inner surface of the bushing that in turn causes the bushing to collapse inwardly and thereby allowing removal of the bushing from the bore, the first guide extends inwardly at a greater depth than a depth of the second guide. an alignment tool configured to fit within an inner cavity of the bushing, the alignment tool having a first guide; a cutter tool configured to travel via the first guide; and the system further comprising a second guide configured to receive the cutter tool, wherein the first guide and the second guide both extend inwardly from an outer surface of the alignment tool; and characterised in that wherein the cutter tool removes material from an inner surface of the bushing that in turn causes the bushing to collapse inwardly and thereby allowing removal of the bushing from the bore, the first guide extends inwardly at a greater depth than a depth of the second guide.
An image forming apparatus, comprising: a developing unit including developing cartridges (30Y,30M,30C,30K) that store a plurality of toners, the toners being of differing colors; a storage unit to store information related to respective minimum amounts of the toners sufficient to complete a printing operation; and a controller arranged to perform the printing operation in which a substitute toner is selected to perform a remaining portion of the printing operation using the substitute toner; wherein the controller is arranged to select the substitute toner from among the toners having an amount that is not smaller than the respective minimum amount; wherein the substitute toner is selected from among a plurality of substitute toners when at least one of the toners of the developing unit is insufficient to complete the printing operation, charaterized in that the controller excludes one of the plurality of toners having a specific color when selecting the substitute toner, and wherein a toner having a greatest amount relative to the non-excluded toners is selected as the substitute toner. a developing unit including developing cartridges (30Y,30M,30C,30K) that store a plurality of toners, the toners being of differing colors; a storage unit to store information related to respective minimum amounts of the toners sufficient to complete a printing operation; and a controller arranged to perform the printing operation in which a substitute toner is selected to perform a remaining portion of the printing operation using the substitute toner; wherein the controller is arranged to select the substitute toner from among the toners having an amount that is not smaller than the respective minimum amount; wherein the substitute toner is selected from among a plurality of substitute toners when at least one of the toners of the developing unit is insufficient to complete the printing operation, charaterized in that the controller excludes one of the plurality of toners having a specific color when selecting the substitute toner, and wherein a toner having a greatest amount relative to the non-excluded toners is selected as the substitute toner.
A method for use in a wireless transmitter for simultaneously transmitting a plurality of wireless signals using a plurality of antenna elements, the method comprising: selecting a non-constant modulus spatial precoder from a NCM codebook comprising a plurality of NCM spatial precoders, wherein the plurality of the NCM spatial precoders are based on a unit-power beamforming vector optimized so that the wireless transmitter transmits up to the full power of each antenna element of the plurality of antenna elements while an overall transmitted power remains constant, wherein the NCM codebook comprises a codebook of size S constructed with a quantization table M= S/4 as follows: CB 2 s = P 1 2 P 2 2 ⋯ P S 2 = cos mπ 2 M + 1 j b sin mπ 2 M + 1 | b ∈ 0,1, m = ± 1, ± 2,..., ± M with M = S 4 where P p k denotes the k-th precoder of port- p codebook CB p s; applying the selected NCM spatial precoder to a data signal for generating a plurality of coded signals; and transmitting the plurality of coded signals as wireless signals via a power amplifier operating at full power. selecting a non-constant modulus spatial precoder from a NCM codebook comprising a plurality of NCM spatial precoders, wherein the plurality of the NCM spatial precoders are based on a unit-power beamforming vector optimized so that the wireless transmitter transmits up to the full power of each antenna element of the plurality of antenna elements while an overall transmitted power remains constant, wherein the NCM codebook comprises a codebook of size S constructed with a quantization table M= S/4 as follows: CB 2 s = P 1 2 P 2 2 ⋯ P S 2 = cos mπ 2 M + 1 j b sin mπ 2 M + 1 | b ∈ 0,1, m = ± 1, ± 2,..., ± M with M = S 4 where P p k denotes the k-th precoder of port- p codebook CB p s; applying the selected NCM spatial precoder to a data signal for generating a plurality of coded signals; and transmitting the plurality of coded signals as wireless signals via a power amplifier operating at full power.
A method of determination of horizontal constraints in subsoil, wherein the method comprises: - receiving well data of the subsoil; - dividing the well data in a plurality of contiguous sets of data i, a set of data i being above a set of data i+1; - for each set of data i in the plurality of sets of data, determining, based on the set of data i, at least parameters: - P i, a pressure in subsoil corresponding to the set of data i; - b i, a Biot coefficient corresponding to the set of data i; - ν i, a Poisson's ratio corresponding to the set of data i; - σ v i, a vertical constraints in subsoil corresponding to the set of data i; - E i, a Young's modulus corresponding to the set of data i; - α i, thermal expansion coefficient corresponding to the set of data i; - T i, a temperature in subsoil corresponding to the set of data i; - for each set of data i in the plurality of sets of data, computing and outputting the horizontal constraints σ h i = σ h i − 1 + b i P i − P i − 1 + v i 1 − v i σ v i − σ v i − 1 − b i P i − P i − 1 + E i α i 1 − v i T i − T i − 1. - receiving well data of the subsoil; - dividing the well data in a plurality of contiguous sets of data i, a set of data i being above a set of data i+1; - for each set of data i in the plurality of sets of data, determining, based on the set of data i, at least parameters: - P i, a pressure in subsoil corresponding to the set of data i; - b i, a Biot coefficient corresponding to the set of data i; - ν i, a Poisson's ratio corresponding to the set of data i; - σ v i, a vertical constraints in subsoil corresponding to the set of data i; - E i, a Young's modulus corresponding to the set of data i; - α i, thermal expansion coefficient corresponding to the set of data i; - T i, a temperature in subsoil corresponding to the set of data i; - P i, a pressure in subsoil corresponding to the set of data i; - b i, a Biot coefficient corresponding to the set of data i; - ν i, a Poisson's ratio corresponding to the set of data i; - σ v i, a vertical constraints in subsoil corresponding to the set of data i; - E i, a Young's modulus corresponding to the set of data i; - α i, thermal expansion coefficient corresponding to the set of data i; - T i, a temperature in subsoil corresponding to the set of data i; - for each set of data i in the plurality of sets of data, computing and outputting the horizontal constraints σ h i = σ h i − 1 + b i P i − P i − 1 + v i 1 − v i σ v i − σ v i − 1 − b i P i − P i − 1 + E i α i 1 − v i T i − T i − 1.
A moisture control system, comprising: an anode coupled to an insulation blanket that is positioned between an inner wall and an outer wall of an aircraft fuselage; a cathode coupled to an interior surface of the outer wall, which interior surface of the outer wall of the aircraft fuselage is made of a conductive material and which outer wall of the aircraft fuselage includes an electrically conductive material, whereby the cathode coupled to the interior surface of the outer wall of the aircraft fuselage causes the interior surface of the outer wall of the aircraft fuselage to act as a cathode as well; and a power control unit coupled to the anode and the cathode to apply voltage across the anode and the cathode, and when the voltage is applied across the anode and the cathode, moisture is drawn away from the anode and toward the cathode on the interior surface of the outer wall and guided along a drainage path provided via structural members disposed between the inner wall and the outer wall toward a drainage port. an anode coupled to an insulation blanket that is positioned between an inner wall and an outer wall of an aircraft fuselage; a cathode coupled to an interior surface of the outer wall, which interior surface of the outer wall of the aircraft fuselage is made of a conductive material and which outer wall of the aircraft fuselage includes an electrically conductive material, whereby the cathode coupled to the interior surface of the outer wall of the aircraft fuselage causes the interior surface of the outer wall of the aircraft fuselage to act as a cathode as well; and a power control unit coupled to the anode and the cathode to apply voltage across the anode and the cathode, and when the voltage is applied across the anode and the cathode, moisture is drawn away from the anode and toward the cathode on the interior surface of the outer wall and guided along a drainage path provided via structural members disposed between the inner wall and the outer wall toward a drainage port.
An apparatus for generating superheated vapor using waste heat recovery comprising: a housing comprising an inlet tank and an outlet tank at both ends, wherein exhaust gas is introduced through the inlet tank and discharged through the outlet tank; a plurality of exhaust gas tubes disposed inside the housing so as to be spaced apart from each other at predetermined distances in a top-bottom direction; and a plurality of working fluid tubes alternating witht he adjacent exhaust gas tubes of the plurality of exhaust gas tubes, wherein an inlet pipe and an outlet pipe are disposed on a side surface of the housing, wherein working fluid is introduced through the inlet pipe and discharged through the outlet pipe, the inlet pipe and the outlet pipe are connected to the plurality of working fluid tubes so as to communicate each of the plurality of working fluid tubes, and an upper surface and a lower surface of each of the plurality of working fluid tubes directly adjoin to adjacent exhaust gas tubes of the plurality of exhaust gas tubes. a housing comprising an inlet tank and an outlet tank at both ends, wherein exhaust gas is introduced through the inlet tank and discharged through the outlet tank; a plurality of exhaust gas tubes disposed inside the housing so as to be spaced apart from each other at predetermined distances in a top-bottom direction; and a plurality of working fluid tubes alternating witht he adjacent exhaust gas tubes of the plurality of exhaust gas tubes, wherein an inlet pipe and an outlet pipe are disposed on a side surface of the housing, wherein working fluid is introduced through the inlet pipe and discharged through the outlet pipe, the inlet pipe and the outlet pipe are connected to the plurality of working fluid tubes so as to communicate each of the plurality of working fluid tubes, and an upper surface and a lower surface of each of the plurality of working fluid tubes directly adjoin to adjacent exhaust gas tubes of the plurality of exhaust gas tubes.
A preparation method of a battery composite material characterized in that, at least comprising steps of: (a) providing a manganese-contained compound, phosphoric acid, a lithium-contained compound, a carbon source, and deionized water, wherein the chemical formula of the phosphoric acid is written by H 3 PO 4; (b) processing a reaction of the manganese-contained compound, the phosphoric acid, and a portion of the deionized water to produce a first product; (c) placing the first product at a first temperature for at least a first time period to produce a first precursor, wherein the chemical formula of the first precursor is written by Mn 5 (HPO 4) 2 (PO 4) 2 (H 2 O) 4, the first temperature is larger than or equal to 60°C, and less than or equal to 100°C, and the first time period is larger than or equal to 18 hours; and (d) processing a reaction of at least the first precursor, the lithium-contained compound, and another portion of the deionized water, adding the carbon source, and then calcining to produce the battery composite material. (a) providing a manganese-contained compound, phosphoric acid, a lithium-contained compound, a carbon source, and deionized water, wherein the chemical formula of the phosphoric acid is written by H 3 PO 4; (b) processing a reaction of the manganese-contained compound, the phosphoric acid, and a portion of the deionized water to produce a first product; (c) placing the first product at a first temperature for at least a first time period to produce a first precursor, wherein the chemical formula of the first precursor is written by Mn 5 (HPO 4) 2 (PO 4) 2 (H 2 O) 4, the first temperature is larger than or equal to 60°C, and less than or equal to 100°C, and the first time period is larger than or equal to 18 hours; and (d) processing a reaction of at least the first precursor, the lithium-contained compound, and another portion of the deionized water, adding the carbon source, and then calcining to produce the battery composite material.
Scraping device (1, 11) for the return strand of a conveyor belt comprising: - at least one flexible scraping blade (7, 17) comprising an elastomer and made in one piece; - at least two rigid levers (2, 12) positioned on either side of a plane of symmetry (6, 16) of the scraping device (1, 11), said levers (2, 12) being capable of rotating about two axes or points (5, 305) of support, characterized in that said levers (2, 12) are embedded in said flexible blade (7, 17), and in that each lever (2, 12) comprises a central lever positioned from said axes or points (5, 305) of support toward the center of said flexible blade (7, 17) and an outer lever positioned from said axes or points (5, 305) of support toward the side edges of said flexible blade (7, 17), the ratio of the length of the outer lever to the length (d) of the inner lever being between 1 and 3, preferably between 1.5 and 2.5, so as to make it possible, during use, to balance the pressures exerted by the flexible blade (7, 17) between the edges and the middle of the conveyor belt. - at least one flexible scraping blade (7, 17) comprising an elastomer and made in one piece; - at least two rigid levers (2, 12) positioned on either side of a plane of symmetry (6, 16) of the scraping device (1, 11), said levers (2, 12) being capable of rotating about two axes or points (5, 305) of support,
A method for accessing recorded video programming through a home network, the method comprising: receiving, at an interactive media guidance application, a request to access viewing preferences for a first device and a second device in the home network; receiving, at the interactive media guidance application, a first user selection specifying viewing preferences for the first device that can access the video programming through the home network, wherein the viewing preferences for the first device comprise a first display format in which to display the video programming on the first device; receiving, at the interactive media guidance application, a second user selection specifying viewing preferences for a second device that can access the video programming through the home network, wherein the viewing preferences for the second device comprise a second display format in which to display the video programming on the second device; receiving a first request from the first device to play the video programming; delivering a first version of the video programming to the first device based on the viewing preferences for the first device; receiving a second request from the second device to play the video programming; and delivering a second version of the video programming to the second device based on the viewing preferences for the second device, wherein the viewing preferences for the first and second devices are different. receiving, at an interactive media guidance application, a request to access viewing preferences for a first device and a second device in the home network; receiving, at the interactive media guidance application, a first user selection specifying viewing preferences for the first device that can access the video programming through the home network, wherein the viewing preferences for the first device comprise a first display format in which to display the video programming on the first device; receiving, at the interactive media guidance application, a second user selection specifying viewing preferences for a second device that can access the video programming through the home network, wherein the viewing preferences for the second device comprise a second display format in which to display the video programming on the second device; receiving a first request from the first device to play the video programming; delivering a first version of the video programming to the first device based on the viewing preferences for the first device; receiving a second request from the second device to play the video programming; and delivering a second version of the video programming to the second device based on the viewing preferences for the second device, wherein the viewing preferences for the first and second devices are different.
A method of communication information transmission performed by a first device, the method comprising: receiving a communication request from a second device; obtaining surrounding situation information of the first device, the surrounding situation information comprising information related to surroundings of the first device; determining whether a user of the first device is in a vicinity of the first device based on the surrounding situation information; determining a third device to process the communication request; and transmitting information related to the communication request to the third device if it is determined that the user of the first device is not in the vicinity of the first device. receiving a communication request from a second device; obtaining surrounding situation information of the first device, the surrounding situation information comprising information related to surroundings of the first device; determining whether a user of the first device is in a vicinity of the first device based on the surrounding situation information; determining a third device to process the communication request; and transmitting information related to the communication request to the third device if it is determined that the user of the first device is not in the vicinity of the first device.
A method of assembling an electric compressor having an electric motor and a compressor mechanism, said motor and compressor mechanism being coaxially integrated in a housing; wherein a rotor is shrink-fitted to a rotor press-fitting portion formed at an intermediate portion of a main shaft of the electric motor; an inner race of a main bearing is press-fitted to a bearing journal portion formed near an end of the main shaft on a side of the compressor mechanism; and an outer race of the main bearing is press-fitted to a bearing bore portion formed in a partition member that separates the electric motor and the compressor mechanism; the bearing journal portion is formed in a shape into which the inner race is press-fitted from both sides in an axial direction thereof, and, in addition, an outer diameter of the bearing journal portion is made larger than an outer diameter of the rotor press-fitting portion; and the bearing bore portion is formed in a shape into which the outer race is press-fitted from both sides in an axial direction thereof, characterized in that the assembly method includes: first, shrink-fitting the rotor to the rotor press-fitting portion of the main shaft; also press-fitting the outer race of the main bearing to the bearing bore portion of the partition member; and subsequently press-fitting the inner race of the main bearing to the bearing journal portion of the main shaft from an opposite side from the rotor. first, shrink-fitting the rotor to the rotor press-fitting portion of the main shaft; also press-fitting the outer race of the main bearing to the bearing bore portion of the partition member; and subsequently press-fitting the inner race of the main bearing to the bearing journal portion of the main shaft from an opposite side from the rotor.
Method for the identification of at least one glycoform and/or isoform of transferrin possibly present in a complex biological matrix, said method comprising the steps of: a. contact a sample of said matrix with a source of lanthanide 3+ ion, wherein the source of lanthanide 3+ ion is an organic or aqueous solution comprising a salt of a +3 ion of an element selected from europium, erbium, praseodymium, ytterbium and, preferably, terbium, obtaining a mixture; b. leaving said mixture to rest for an incubation period so as to allow the functionalisation, with lanthanide 3+ ion, of at least one transferrin glycoform and/or isoform, forming the transferrin-lanthanide 3+ ion adduct; c. analytical separation by high performance liquid chromatography (HPLC) or capillary electrophoresis analysis and measurement and detection by fluorescence of said at least one functionalised glycoform and/or isoform. a. contact a sample of said matrix with a source of lanthanide 3+ ion, wherein the source of lanthanide 3+ ion is an organic or aqueous solution comprising a salt of a +3 ion of an element selected from europium, erbium, praseodymium, ytterbium and, preferably, terbium, obtaining a mixture; b. leaving said mixture to rest for an incubation period so as to allow the functionalisation, with lanthanide 3+ ion, of at least one transferrin glycoform and/or isoform, forming the transferrin-lanthanide 3+ ion adduct; c. analytical separation by high performance liquid chromatography (HPLC) or capillary electrophoresis analysis and measurement and detection by fluorescence of said at least one functionalised glycoform and/or isoform.