mhurhangee/ep-ind-claims huggingface dataset:
A process for removing acid gas including carbon dioxide from syngas, the process comprising the steps of: separating the acid gas from the syngas using an absorbent solvent to form a treated syngas stream and a carbon dioxide-rich solvent stream; flashing carbon dioxide and residual gas from the carbon dioxide-rich solvent stream to form a carbon dioxide-rich flash stream (54, 64, and 74); compressing the carbon dioxide-rich flash stream (54, 64, and 74) to a predetermined high pressure; cooling and expanding the carbon dioxide-rich flash stream (54, 64, and 74) to a predetermined low temperature and pressure to form a cooled expanded carbon dioxide-rich flash stream; and fractionating the cooled expanded carbon dioxide-rich flash stream to form a carbon dioxide-ultra-rich product stream and a residual gas stream. separating the acid gas from the syngas using an absorbent solvent to form a treated syngas stream and a carbon dioxide-rich solvent stream; flashing carbon dioxide and residual gas from the carbon dioxide-rich solvent stream to form a carbon dioxide-rich flash stream (54, 64, and 74); compressing the carbon dioxide-rich flash stream (54, 64, and 74) to a predetermined high pressure; cooling and expanding the carbon dioxide-rich flash stream (54, 64, and 74) to a predetermined low temperature and pressure to form a cooled expanded carbon dioxide-rich flash stream; and fractionating the cooled expanded carbon dioxide-rich flash stream to form a carbon dioxide-ultra-rich product stream and a residual gas stream.
Steam generating device comprising a steam chamber provided with a hydrophilic coating composition comprising an alkali metal silicate compound, characterized in that the coating composition further comprises boron.
A blood processing system of the type including a centrifuge and an optical monitoring system, in combination with a disposable flow circuit that comprises: a blood separation chamber (166, 172) configured to be at least partially received inside the centrifuge for the flow of whole blood and/or a separated blood component therethrough; an inlet tube for the flow of whole blood into the blood separation chamber (166, 172); and an outlet tube (36, 38) for the flow of a separated blood component out of the blood separation chamber (166, 172), wherein the blood separation chamber (166, 172) includes at least one identification feature configured to be detected by the optical monitoring system when the blood separation chamber (166, 172) is received inside the centrifuge to verify that the blood separation chamber (166, 172) is suitable for use with the centrifuge, or at least one alignment feature configured to be detected by the optical monitoring system when the blood separation chamber (166, 172) is received inside the centrifuge to verify that the blood separation chamber (166, 172) is properly aligned within the centrifuge, wherein said optical monitoring system is configured for detection of flow characteristics of the disposable flow circuit. a blood separation chamber (166, 172) configured to be at least partially received inside the centrifuge for the flow of whole blood and/or a separated blood component therethrough; an inlet tube for the flow of whole blood into the blood separation chamber (166, 172); and an outlet tube (36, 38) for the flow of a separated blood component out of the blood separation chamber (166, 172), wherein the blood separation chamber (166, 172) includes at least one identification feature configured to be detected by the optical monitoring system when the blood separation chamber (166, 172) is received inside the centrifuge to verify that the blood separation chamber (166, 172) is suitable for use with the centrifuge, or at least one alignment feature configured to be detected by the optical monitoring system when the blood separation chamber (166, 172) is received inside the centrifuge to verify that the blood separation chamber (166, 172) is properly aligned within the centrifuge, wherein said optical monitoring system is configured for detection of flow characteristics of the disposable flow circuit.
A cleaning and charging station for an electrically driven device, the station comprising an outer housing with a base portion and a gallows structure extending from the base portion, the base portion having a vertical center axis and comprising a cleaning chamber for at least partially receiving the electrically driven device and the gallows structure comprising a charging terminal for charging the electrically driven device, and a circuit board mounted within the housing and connected to the charging terminal, wherein the gallows structure is located offset to the vertical center axis on the base portion and is inclined to the vertical center axis in at least two directions and wherein the base portion has a front side and an opposite back side, with the cleaning chamber being located closer to the front side and the gallows structure being located closer to the back side, wherein the gallows structure is inclined towards the back side wherein the base portion has a bottom side and a top side which is inclined with respect to the bottom side such that the height of the base portion is larger at the back side and smaller on the front side, characterized in that the station comprises a first base portion part and a second gallows structure part, said gallows structure part being provided with said cleaning chamber both of which being provided for receiving a shaver and in that the gallows structure part being partially inserted into the base portion part, so that the cleaning chamber being provided inside and the gallows structure being provided outside of the first base portion part.
A vacuum cleaner comprising: a power supply; a suction unit including a main suction port; a driving unit including a motor including a rotor and a stator; a sensing unit including a hall sensor to detect a position of the rotor; and a controller configured to control the power supply to supply predetermined rearrangement power to the motor for rotating the rotor for a predetermined time period, and to supply start-up power to the motor according to the detected position of the rotor. a power supply; a suction unit including a main suction port; a driving unit including a motor including a rotor and a stator; a sensing unit including a hall sensor to detect a position of the rotor; and a controller configured to control the power supply to supply predetermined rearrangement power to the motor for rotating the rotor for a predetermined time period, and to supply start-up power to the motor according to the detected position of the rotor.
A method of itemising web pages for display on a screen in a system comprising a server connected to the internet, the server having storage for format data in respect of one or more accessible websites, the or each website comprising at least one page having a page format, the method comprising: at a client, requesting from the server format data for a requested website, said format data comprising the details of the or each different type of page format on said requested website; upon receipt of the format data, accessing the website; and when the website has been accessed itemising locally the website in dependence on the format data. at a client, requesting from the server format data for a requested website, said format data comprising the details of the or each different type of page format on said requested website; upon receipt of the format data, accessing the website; and when the website has been accessed itemising locally the website in dependence on the format data.
Dye of the formula in which R 1 is hydrogen, fluorine, chlorine, COOH or COOR 8, R 2 is hydrogen, fluorine, chlorine, C 1 -C 4 -alkyl or CF 3, R 3 is hydrogen, fluorine, chlorine, COOR 9 or CN, R 4 is C 1 -C 4 -alkyl or phenyl, R 5 and R 6 are each independently C 1 -C 4 -alkyl, R 7 is hydrogen, fluorine, chlorine, C 1 -C 4 -alkyl or CF 3, R 8 is C 1 -C 4 -alkyl and R 9 is C 1 -C 4 -alkyl, with the condition that R 1 and R 3 are not both hydrogen. R 1 is hydrogen, fluorine, chlorine, COOH or COOR 8, R 2 is hydrogen, fluorine, chlorine, C 1 -C 4 -alkyl or CF 3, R 3 is hydrogen, fluorine, chlorine, COOR 9 or CN, R 4 is C 1 -C 4 -alkyl or phenyl, R 5 and R 6 are each independently C 1 -C 4 -alkyl, R 7 is hydrogen, fluorine, chlorine, C 1 -C 4 -alkyl or CF 3, R 8 is C 1 -C 4 -alkyl and R 9 is C 1 -C 4 -alkyl,
Audio encoder supporting noise filling, configured to quantize and code a spectrum of an audio signal into a data stream and set and code into the data stream, a spectrally global noise filling level for performing noise filling on the spectrum of the audio signal, in a manner dependent on a tonality of the audio signal, characterized in that the encoder is configured to, in setting and coding the spectrally global noise filling level, measure a level of the audio signal within contiguous spectral zero-portions of the spectrum, spectrally shaped dependent on the tonality of the audio signal, using a function (48, 50) assuming a maximum in an inner of the contiguous spectral zero-portion, and having outwardly falling edges (58, 60) an absolute slope of which negatively depends on the tonality, or a function (48, 50) assuming a maximum in an inner of the contiguous spectral zero-portion, and having outwardly falling edges (58, 60) a spectral width (54, 56) of which positively depends on the tonality, or a constant or unimodal function (48, 50) an integral of which - normalized to an integral of 1 - over outer quarters (a, d) of the contiguous spectral zero-portion negatively depends on the tonality, or a function set dependent on the contiguous spectral zero-portion's width so that the function is confined to the contiguous spectral zero-portion, and dependent on the tonality of the audio signal so that, if the tonality of the audio signal increases, the function gets more compact in the inner of the contiguous spectral zero-portion and distanced from the contiguous spectral zero-portion's outer edges. a function (48, 50) assuming a maximum in an inner of the contiguous spectral zero-portion, and having outwardly falling edges (58, 60) an absolute slope of which negatively depends on the tonality, or a function (48, 50) assuming a maximum in an inner of the contiguous spectral zero-portion, and having outwardly falling edges (58, 60) a spectral width (54, 56) of which positively depends on the tonality, or a constant or unimodal function (48, 50) an integral of which - normalized to an integral of 1 - over outer quarters (a, d) of the contiguous spectral zero-portion negatively depends on the tonality, or a function set dependent on the contiguous spectral zero-portion's width so that the function is confined to the contiguous spectral zero-portion, and dependent on the tonality of the audio signal so that, if the tonality of the audio signal increases, the function gets more compact in the inner of the contiguous spectral zero-portion and distanced from the contiguous spectral zero-portion's outer edges.
Maltitol crystals, characterized in that they have a rectangular parallelepipedal shape and in that the ratio of the length to width dimensions is in the range 1.8 to 5.3, preferably in the range 2.3 to 3.7.
A method of handling session initiation protocol, SIP, session initiation requests in an IP Multimedia Subsystem, IMS, network, the method comprising, at an application server within the network: receiving a session initiation request containing a destination address, where that destination address is currently associated with a plurality of user equipments, UE, registered under the destination address in a Serving Call Session Control Function, S-CSCF, in the IMS network; recording an identity of a user equipment, UE, handling a first session in a database during establishment of the first session in respect of the destination address; determining whether or not a UE, associated with the destination address, is already involved in a session by looking up in a database the address associated with UEs handling ongoing sessions and the identity of the UE handling the first session during establishment of the first session in respect of the destination address, and, if so, then causing the session initiation request to be forwarded only to that UE and, if not, then causing the session initiation request to be forwarded to all UEs registered in respect of the address. receiving a session initiation request containing a destination address, where that destination address is currently associated with a plurality of user equipments, UE, registered under the destination address in a Serving Call Session Control Function, S-CSCF, in the IMS network; recording an identity of a user equipment, UE, handling a first session in a database during establishment of the first session in respect of the destination address; determining whether or not a UE, associated with the destination address, is already involved in a session by looking up in a database the address associated with UEs handling ongoing sessions and the identity of the UE handling the first session during establishment of the first session in respect of the destination address, and, if so, then causing the session initiation request to be forwarded only to that UE and, if not, then causing the session initiation request to be forwarded to all UEs registered in respect of the address. if so, then causing the session initiation request to be forwarded only to that UE and, if not, then causing the session initiation request to be forwarded to all UEs registered in respect of the address.
A sheet comprising: a rubber-containing graft polymer powder at from 1 to 100 parts by mass with respect to 100 parts by mass of polyvinyl acetal, wherein an amount of an acidic component eluted by a hot water test and represented by the following Formula is 3.00 KOHmg/g or less: [Mathematical Formula 2] Amount of acidic component eluted by hot water test = B wherein B (unit: KOHmg/g) represents a value obtained by dividing a mass (unit: mg) of potassium hydroxide required to neutralize an acidic component present in water after immersing the sheet in hot water having a mass of 10 times as much as the sheet and having a temperature of 85°C for 1000 hours by a mass (unit: g) of the sheet before being immersed, and wherein the rubber-containing graft polymer powder is obtained by conducting the graft polymerization of a vinyl monomer in the presence of a rubbery polymer obtained by polymerizing a conjugated diene and an acrylic acid alkyl ester having an alkyl group having from 2 to 8 carbon atoms and coagulating this. a rubber-containing graft polymer powder at from 1 to 100 parts by mass with respect to 100 parts by mass of polyvinyl acetal, wherein an amount of an acidic component eluted by a hot water test and represented by the following Formula is 3.00 KOHmg/g or less: [Mathematical Formula 2] Amount of acidic component eluted by hot water test = B wherein B (unit: KOHmg/g) represents a value obtained by dividing a mass (unit: mg) of potassium hydroxide required to neutralize an acidic component present in water after immersing the sheet in hot water having a mass of 10 times as much as the sheet and having a temperature of 85°C for 1000 hours by a mass (unit: g) of the sheet before being immersed, and wherein the rubber-containing graft polymer powder is obtained by conducting the graft polymerization of a vinyl monomer in the presence of a rubbery polymer obtained by polymerizing a conjugated diene and an acrylic acid alkyl ester having an alkyl group having from 2 to 8 carbon atoms and coagulating this.
A scanning laser projector (300, 400) comprising: a laser light source to create a light beam; a scanning mirror assembly with a scanning mirror to scan the light beam on at least one axis, the scanning mirror assembly including at least one position sensor to measure a mirror scan angle; a mirror drive circuit to drive the mirror scanning assembly and effect mirror scanning through a peak mirror scan angle, where the peak mirror scan angle is variable based on an input to the mirror drive circuit; at least one light detector to measure light output power from the laser light source prior to scanning of the light beam by the scanning mirror; a component to determine a value of a metric and to compare the value of the metric to a threshold that corresponds to a laser class limit, wherein the metric is a function of a measured peak mirror scan angle of the scanning mirror and a measured maximum light output power of the laser light source; a circuit to determine a maximum allowable light output power as a function of the threshold and the measured peak mirror scan angle, and to provide maximum allowable light output power values to an image processing component that receives video data and drives the laser light source, wherein the image processing component is adapted to use the provided allowable light output power values when scaling laser drive signals to create pixels; and a safety circuit to shut off the laser light source if the value of the metric exceeds the threshold. a laser light source to create a light beam; a scanning mirror assembly with a scanning mirror to scan the light beam on at least one axis, the scanning mirror assembly including at least one position sensor to measure a mirror scan angle; a mirror drive circuit to drive the mirror scanning assembly and effect mirror scanning through a peak mirror scan angle, where the peak mirror scan angle is variable based on an input to the mirror drive circuit; at least one light detector to measure light output power from the laser light source prior to scanning of the light beam by the scanning mirror; a component to determine a value of a metric and to compare the value of the metric to a threshold that corresponds to a laser class limit, wherein the metric is a function of a measured peak mirror scan angle of the scanning mirror and a measured maximum light output power of the laser light source; a circuit to determine a maximum allowable light output power as a function of the threshold and the measured peak mirror scan angle, and to provide maximum allowable light output power values to an image processing component that receives video data and drives the laser light source, wherein the image processing component is adapted to use the provided allowable light output power values when scaling laser drive signals to create pixels; and a safety circuit to shut off the laser light source if the value of the metric exceeds the threshold.
A method for determining the cross-sectional area [ A] of a tank of a pump station within an interspace of the tank delimited by a pump start liquid level [ START] and a pump stop liquid level [STOP], as a function of the height taken from the bottom of the tank, the tank of the pump station being configured for temporary storage of a liquid, wherein the pump station comprises an inlet for influent liquid, an outlet, at least one pump configured for transporting the liquid away from the tank via said outlet, and a liquid level sensor, the method is characterized by the steps of: - establishing the cross sectional area [ A(H-seg)] of the tank in a sub-segment of the interspace of the tank, as a function of the height taken from the bottom of the tank, - operating the pump to transport liquid away from the tank and determining the pumped flow [ Q(H-seg)] in the sub-segment of the interspace of the tank, as a function of the height taken from the bottom of the tank, - determining the pumped flow [ Q] in the interspace of the tank, as a function of the height taken from the bottom of the tank, based on the determined sub-segment pumped flow [ Q(H-seg)], - operating the pump to transfer liquid away from the tank and by means of the liquid level sensor determining a liquid level change [ ΔH] in the interspace of the tank, as a function of the height taken from the bottom of the tank, - determining the cross-sectional area [ A] of the tank within the interspace of the tank, as a function of the height taken from the bottom of the tank, by dividing the interspace pumped flow [ Q] by the liquid level change [ ΔH], [ Q / ΔH = A]. - establishing the cross sectional area [ A(H-seg)] of the tank in a sub-segment of the interspace of the tank, as a function of the height taken from the bottom of the tank, - operating the pump to transport liquid away from the tank and determining the pumped flow [ Q(H-seg)] in the sub-segment of the interspace of the tank, as a function of the height taken from the bottom of the tank, - determining the pumped flow [ Q] in the interspace of the tank, as a function of the height taken from the bottom of the tank, based on the determined sub-segment pumped flow [ Q(H-seg)], - operating the pump to transfer liquid away from the tank and by means of the liquid level sensor determining a liquid level change [ ΔH] in the interspace of the tank, as a function of the height taken from the bottom of the tank, - determining the cross-sectional area [ A] of the tank within the interspace of the tank, as a function of the height taken from the bottom of the tank, by dividing the interspace pumped flow [ Q] by the liquid level change [ ΔH], [ Q / ΔH = A].
Stopper for closing an opening, in particular in a vehicle body, with an annular sealing portion which is provided to lie against the edge of the opening, and an expanding portion which is connected to the sealing portion by means of a folding portion and is also formed integrally with the sealing portion and is adjustable from a mounting position, in which the folding portion of the expanding portion has at least two stepped cylindrical portions (38, 40), and the sealing portion has a mounting diameter at least at an axial end at which said sealing portion has an encircling latching edge, into an expanding position in which the sealing portion has a larger diameter, wherein, by means of the adjustment into the expanding position, the sealing portion is placed in a sealing manner against the opening edge or opening inner surface, characterized in that the cylindrical portions (38, 40) lie one behind the other in the axial direction in the mounting position, and, in the expanding position, the cylindrical portions (38, 40) lie radially next to each other at the same height and exert a radial force (F R) on the sealing portion.
A cover plate arrangement comprising a screw-mountable underplate and a cover plate to be fitted thereon, the cover plate comprising a front plate and a lateral portion, characterized in that the lateral portion of the cover plate comprises at least one inward-projecting wing at the edge of the lateral portion opposite to the edge between the front plate and the lateral portion, wherein a lateral groove is left between the wing and the front plate, and the underplate comprises at least one projection transverse to the diameter of the underplate, being open at one end and connected to the rest of the underplate at the other end, and the inner face of the lateral portion of the cover plate comprises at least one first recess, at least one second recess and at least one ridge between the first recess and the second recess, the first recess being arranged to be positioned at the first end of the transverse projection of the underplate as the cover plate is fitted on the underplate, and, as the cover plate fitted on the underplate is turned in a first direction, the projection is arranged to yield elastically, with the open end of the projection moving over the ridge, and once the open end of the projection has moved over the ridge, the second recess is arranged to be positioned at the first end of the transverse projection of the underplate, and an edge of the underplate is arranged to be moved, at least partly, into the lateral groove.