mhurhangee/ep-ind-claims huggingface dataset:
A method of separating air comprising: separating the air within a first air stream by a first cryogenic rectification process, the first cryogenic rectification process employing a higher pressure column and a lower pressure column; withdrawing an oxygen-rich product stream from the lower pressure column, the oxygen-rich product stream being made up of an oxygen-rich liquid column bottoms produced in the lower pressure column; separating the air within a second air stream by a second cryogenic rectification process such that an impure oxygen vapor stream is produced having an oxygen concentration between that of the oxygen-rich product stream and the air and a lower nitrogen concentration than the air; and introducing at least part of the impure oxygen vapor stream produced by the second cryogenic rectification process into the lower pressure column of the first cryogenic rectification process such that oxygen contained within the first air stream and the impure oxygen vapor stream is recovered in the oxygen-rich liquid column bottoms of the lower pressure column and is used in producing the oxygen-rich product stream. separating the air within a first air stream by a first cryogenic rectification process, the first cryogenic rectification process employing a higher pressure column and a lower pressure column; withdrawing an oxygen-rich product stream from the lower pressure column, the oxygen-rich product stream being made up of an oxygen-rich liquid column bottoms produced in the lower pressure column; separating the air within a second air stream by a second cryogenic rectification process such that an impure oxygen vapor stream is produced having an oxygen concentration between that of the oxygen-rich product stream and the air and a lower nitrogen concentration than the air; and introducing at least part of the impure oxygen vapor stream produced by the second cryogenic rectification process into the lower pressure column of the first cryogenic rectification process such that oxygen contained within the first air stream and the impure oxygen vapor stream is recovered in the oxygen-rich liquid column bottoms of the lower pressure column and is used in producing the oxygen-rich product stream.
Measuring apparatus (500, 600, 530, 630) for detecting properties of an object on an object guidance means, comprising: a transmitter; at least two receivers; a control device (501, 601); wherein the control device (501, 601) is configured to transmit a radar transmit signal by means of the transmitter; and wherein the control device (501, 601) is configured to receive by means of the at least two receivers receive signals (510, 551, 552, 553, 610, 605, 606) which are caused by the radar transmit signal; wherein the control device (501, 601) is configured to use the receive signals (510, 551, 552, 553, 610, 605, 606) of the at least two receivers to analyse the structure of the object along a linear region (130, 552', 552") inside a width of the object guidance means, and to determine from a height profile of the object along the linear region the topology of the surface of the object and the height of the surface of the object and from this the volume under the height profile. a transmitter; at least two receivers; a control device (501, 601); wherein the control device (501, 601) is configured to transmit a radar transmit signal by means of the transmitter; and wherein the control device (501, 601) is configured to receive by means of the at least two receivers receive signals (510, 551, 552, 553, 610, 605, 606) which are caused by the radar transmit signal; wherein the control device (501, 601) is configured to use the receive signals (510, 551, 552, 553, 610, 605, 606) of the at least two receivers to analyse the structure of the object along a linear region (130, 552', 552") inside a width of the object guidance means, and to determine from a height profile of the object along the linear region the topology of the surface of the object and the height of the surface of the object and from this the volume under the height profile.
A device for measuring blood pressure, comprising: a housing; a circuit board and a power supply that are disposed within the housing; a display embedded at the surface of the housing; and a first electrode, a second electrode and a photoelectric sensor that are electrically connected to the circuit board, respectively; wherein, the first electrode, the second electrode and the photoelectric sensor are embedded at a surface of the housing; a processor and an amplifier which are integrated on the circuit board, the first electrode and the second electrode are electrically connected to two ends of the amplifier, respectively; the photoelectric sensor is electrically connected to the processor; characterized in that the device further comprises a third electrode electrically connected to the circuit board, wherein the second electrode, the third electrode and the photoelectric sensor are embedded at a same side of the housing, and the third electrode is electrically connected to one end of the amplifier connected to the second electrode so that the third electrode is used as a feedback electrode serving for suppressing common-mode interference. a housing; a circuit board and a power supply that are disposed within the housing; a display embedded at the surface of the housing; and a first electrode, a second electrode and a photoelectric sensor that are electrically connected to the circuit board, respectively; wherein, the first electrode, the second electrode and the photoelectric sensor are embedded at a surface of the housing; a processor and an amplifier which are integrated on the circuit board, the first electrode and the second electrode are electrically connected to two ends of the amplifier, respectively; the photoelectric sensor is electrically connected to the processor; characterized in that the device further comprises a third electrode electrically connected to the circuit board, wherein the second electrode, the third electrode and the photoelectric sensor are embedded at a same side of the housing, and the third electrode is electrically connected to one end of the amplifier connected to the second electrode so that the third electrode is used as a feedback electrode serving for suppressing common-mode interference.
A process for the production of cross-linked beadlets having a core and a surface region, wherein the core region contains, in a high concentration, one or more active ingredients selected from the group of a fat-soluble vitamin active material, a carotenoid and a polyunsaturated fatty acid, and the surface region contains less than 10 % of the total active ingredient content, which process comprises the steps of: a. forming an aqueous emulsion containing the active ingredients, an emulsifier selected from the group consisting of gelatine and ascorbyl palmitate, a texturing agent and a reducing sugar selected from the group consisting of fructose, glucose, lactose, maltose, xylose, arabinose, ribose, sucrose or a mixture of two or more sugars, b. converting the emulsion to a dry particulate form by coating the emulsion droplets with a finely dispersed powder selected from the group consisting of polysaccharides such as starch and modified starch, calcium silicate or of a mixture of calcium silicate with one of the following mixture components: microcrystalline cellulose, magnesium silicate, magnesium oxide, stearic acid, calcium stearate, magnesium stearate, hydrophilic silicic acid and kaolin, and optionally drying the coating, and c. heat treating said dry particulate form at a temperature in the range of from 90°C to 140°C for a time period of from 30 seconds to 30 minutes or from 1 minute to 10 minutes or from 3 minutes to 7. a. forming an aqueous emulsion containing the active ingredients, an emulsifier selected from the group consisting of gelatine and ascorbyl palmitate, a texturing agent and a reducing sugar selected from the group consisting of fructose, glucose, lactose, maltose, xylose, arabinose, ribose, sucrose or a mixture of two or more sugars, b. converting the emulsion to a dry particulate form by coating the emulsion droplets with a finely dispersed powder selected from the group consisting of polysaccharides such as starch and modified starch, calcium silicate or of a mixture of calcium silicate with one of the following mixture components: microcrystalline cellulose, magnesium silicate, magnesium oxide, stearic acid, calcium stearate, magnesium stearate, hydrophilic silicic acid and kaolin, and optionally drying the coating, and c. heat treating said dry particulate form at a temperature in the range of from 90°C to 140°C for a time period of from 30 seconds to 30 minutes or from 1 minute to 10 minutes or from 3 minutes to 7.
A method for operating a device (230, 250, 270; 304-310; 404-408) in a system (200; 300; 400), the method comprising: receiving in the device (230, 250, 270; 304-310; 404-408) information indicative of current resource capabilities of at least a part of the system (200; 300; 400); determining by the device (230, 250, 270; 304-310; 404-408) whether to begin an operation of the device (230, 250, 270; 304-310; 404-408) based on the information; and in response to determining to begin the operation of the device (230, 250, 270; 304-310; 404-408): operating the device (230, 250, 270; 304-310; 404-408); CHARACTERISED BY: further in response to determining to begin the operation of the device (230, 250, 270; 304-310; 404-408): modifying the information indicative of the current resource capabilities so that the modified information reflects the current resource capabilities of the at least part of the system when taking into account the resources consumed by the operation of the device (230, 250, 270; 304-310; 404-408); and sending the modified information to a host (210, 302, 402) or an external device (230, 250, 270; 304-310; 404-408). receiving in the device (230, 250, 270; 304-310; 404-408) information indicative of current resource capabilities of at least a part of the system (200; 300; 400); determining by the device (230, 250, 270; 304-310; 404-408) whether to begin an operation of the device (230, 250, 270; 304-310; 404-408) based on the information; and in response to determining to begin the operation of the device (230, 250, 270; 304-310; 404-408): operating the device (230, 250, 270; 304-310; 404-408); operating the device (230, 250, 270; 304-310; 404-408); further in response to determining to begin the operation of the device (230, 250, 270; 304-310; 404-408): modifying the information indicative of the current resource capabilities so that the modified information reflects the current resource capabilities of the at least part of the system when taking into account the resources consumed by the operation of the device (230, 250, 270; 304-310; 404-408); and sending the modified information to a host (210, 302, 402) or an external device (230, 250, 270; 304-310; 404-408). modifying the information indicative of the current resource capabilities so that the modified information reflects the current resource capabilities of the at least part of the system when taking into account the resources consumed by the operation of the device (230, 250, 270; 304-310; 404-408); and sending the modified information to a host (210, 302, 402) or an external device (230, 250, 270; 304-310; 404-408).
A lock assembly for connecting a distal end of a prosthetic liner to a distal end of a prosthetic socket, the lock assembly comprising: a base arranged to be supported by the distal end of the prosthetic socket, and defining a bore; an attachment pin arranged to be carried by the prosthetic liner and insertable through the bore, the attachment pin defining notches along a longitudinal length thereof; a lock mechanism arranged to be carried by the base and rotatable about a rotation axis, the lock mechanism including a control knob extending outwardly from a side of the base, the control knob having at least one elongate projection (126, 128) extending in a direction transverse relative to the rotation axis, the lock mechanism further comprising a pinion operably communicating with the bore and adapted to selectively engage at least one notch among the notches of the attachment pin as the attachment pin is inserted within and through the bore; wherein as the attachment pin is inserted through and within the bore, the control knob is arranged to spin the at least one elongate projection (126, 128) about the rotation axis; characterized in that the at least one elongate projection defines first and second projections (126, 128), which extend obliquely a predetermined distance from and relative to a side of the base without interference from the base; the first and second projections (126, 128) extend radially from a central portion including the rotation axis. a base arranged to be supported by the distal end of the prosthetic socket, and defining a bore; an attachment pin arranged to be carried by the prosthetic liner and insertable through the bore, the attachment pin defining notches along a longitudinal length thereof; a lock mechanism arranged to be carried by the base and rotatable about a rotation axis, the lock mechanism including a control knob extending outwardly from a side of the base, the control knob having at least one elongate projection (126, 128) extending in a direction transverse relative to the rotation axis, the lock mechanism further comprising a pinion operably communicating with the bore and adapted to selectively engage at least one notch among the notches of the attachment pin as the attachment pin is inserted within and through the bore; wherein as the attachment pin is inserted through and within the bore, the control knob is arranged to spin the at least one elongate projection (126, 128) about the rotation axis; characterized in that the at least one elongate projection defines first and second projections (126, 128), which extend obliquely a predetermined distance from and relative to a side of the base without interference from the base; the first and second projections (126, 128) extend radially from a central portion including the rotation axis.
A glass fiber-reinforced resin molded article comprising: a glass fiber fabric; and a transparent resin, wherein an average resin unimpregnation ratio in proximity to filament of the glass fiber fabric is more than 2.0% and 50.0% or less as measured according to the description, a warp yarn width Bt and a weft yarn width By of the glass fiber fabric each are in a range of 0.50 mm to 8.50 mm as measured according to the description, a warp yarn weaving density Wt and a weft yarn weaving density Wy of the glass fiber fabric each are in a range of 3.0 yarns/25 mm to 50 yarns/25 mm as measured according to the description, and a degree of widening of warp yarn Et calculated by Bt/(25/Wt) and a degree of widening of weft yarn Ey calculated by By/(25/Wy) of the glass fiber fabric each are in a range of 0.70 to 1.10 as measured according to the description. a glass fiber fabric; and a transparent resin, wherein an average resin unimpregnation ratio in proximity to filament of the glass fiber fabric is more than 2.0% and 50.0% or less as measured according to the description, a warp yarn width Bt and a weft yarn width By of the glass fiber fabric each are in a range of 0.50 mm to 8.50 mm as measured according to the description, a warp yarn weaving density Wt and a weft yarn weaving density Wy of the glass fiber fabric each are in a range of 3.0 yarns/25 mm to 50 yarns/25 mm as measured according to the description, and a degree of widening of warp yarn Et calculated by Bt/(25/Wt) and a degree of widening of weft yarn Ey calculated by By/(25/Wy) of the glass fiber fabric each are in a range of 0.70 to 1.10 as measured according to the description.
A pressure sensitive adhesive composition comprising: a (meth)acrylic polymer comprising polymerized units of alkyl (meth)acrylate monomer having a Tg less than 0°C, determined by Fox equation, and ethylenically unsaturated monomer comprising a pendent functional group crosslinked with an amine or carboxylic acid group of at least one amino acid, wherein the amino acid lacks a chain transfer agent group selected from SH, SeH, or OH. a (meth)acrylic polymer comprising polymerized units of alkyl (meth)acrylate monomer having a Tg less than 0°C, determined by Fox equation, and ethylenically unsaturated monomer comprising a pendent functional group crosslinked with an amine or carboxylic acid group of at least one amino acid, wherein the amino acid lacks a chain transfer agent group selected from SH, SeH, or OH.
An apparatus for breaking a moving web comprising: a first rotating device in operative association with a drive device, the drive device for rotating the first rotating device adjacent to a moving web, the first rotating device including a circumference that is configured to move in the same direction as a moving web; a web engaging device being positioned to momentarily engage a moving web; a straining element located along the circumference of the first rotating device, the straining element having a contact surface that is configured to move at a speed greater or less than the speed of a moving web; and wherein, in order to break a moving web, the web engaging device momentarily engages a moving web while the contact surface of the straining element contacts the web at a speed differential that creates strain and breaks a moving web. a first rotating device in operative association with a drive device, the drive device for rotating the first rotating device adjacent to a moving web, the first rotating device including a circumference that is configured to move in the same direction as a moving web; a web engaging device being positioned to momentarily engage a moving web; a straining element located along the circumference of the first rotating device, the straining element having a contact surface that is configured to move at a speed greater or less than the speed of a moving web; and wherein, in order to break a moving web, the web engaging device momentarily engages a moving web while the contact surface of the straining element contacts the web at a speed differential that creates strain and breaks a moving web.
Exhaust gas diffuser for a gas turbine, which exhaust gas diffuser has a center axis in its center, having a flow duct which widens towards the diffuser outlet and in the center of which provision is made for an axially extending guide body, wherein the guide body, at least in an axial section of its longitudinal extent, has a number of recesses which are distributed over the circumference and arranged between guide elements, characterized in that each guide element extends along a spiral line along the longitudinal extent of the guide body.
A method for a network node of a wireless communication network, the network node adapted to communicate with wireless communication devices of a first type associated with a first maximum communication distance range and with wireless communication devices of a second type associated with a second maximum communication distance range, the first maximum communication distance range being greater than second maximum communication distance range, the method comprising: acquiring values of a first number and a second number, the numbers representing amounts of wireless communication devices associated with upcoming communication with the network node of the first and second types, respectively; determining (120, 160), based on a first condition associated with a ratio between the first number and the second number, a transmission power level for the upcoming communication, wherein a first determined transmission power level based on a first ratio is higher than a second determined transmission power level based on a second ratio if the first ratio is higher than the second ratio; and causing (130, 180, 190) application of the determined transmission power level to the upcoming communication. acquiring values of a first number and a second number, the numbers representing amounts of wireless communication devices associated with upcoming communication with the network node of the first and second types, respectively; determining (120, 160), based on a first condition associated with a ratio between the first number and the second number, a transmission power level for the upcoming communication, wherein a first determined transmission power level based on a first ratio is higher than a second determined transmission power level based on a second ratio if the first ratio is higher than the second ratio; and causing (130, 180, 190) application of the determined transmission power level to the upcoming communication.
A residential skylight comprising a blind frame and a sash frame, wherein the blind frame and/or the sash frame is provided with at least one cover plate and an insulation, which is preferably located below the cover plate, is assigned to the blind frame and/or the sash frame, wherein the insulation consists of a plastic foam material, and wherein a rebate space, in which the insulation is located, lies between blind frame and sash frame, characterised in that the insulation is provided with at least one water drain gutter.
A method for manufacturing a Gas Turbine Engine rotor, the method comprising: consolidating metallic powder utilizing a Hot Isostatic Pressing process to produce a rotor preform (74, 102) in which elongated sacrificial tubes (54, 90, 110) are embedded, the elongated sacrificial tubes (54, 90, 110) having solvent inlet channels (52, 92, 114) extending therein; chemically dissolving the elongated sacrificial tubes to create shaped cavities within the rotor preform; and prior to or after chemical dissolution of the elongated sacrificial tubes, further processing the rotor preform to produce the GTE rotor; characterized in that the method further comprises filling the solvent inlet channels with a non-compressible material prior to the consolidation of the PM body to deter collapse of the elongated sacrificial tubes during the HIP process; and further characterized in that a solvent is directed through the solvent inlet channels when chemically dissolving the elongated sacrificial tubes following removal the non-compressible material from the solvent inlet channels. consolidating metallic powder utilizing a Hot Isostatic Pressing process to produce a rotor preform (74, 102) in which elongated sacrificial tubes (54, 90, 110) are embedded, the elongated sacrificial tubes (54, 90, 110) having solvent inlet channels (52, 92, 114) extending therein; chemically dissolving the elongated sacrificial tubes to create shaped cavities within the rotor preform; and prior to or after chemical dissolution of the elongated sacrificial tubes, further processing the rotor preform to produce the GTE rotor; characterized in that the method further comprises filling the solvent inlet channels with a non-compressible material prior to the consolidation of the PM body to deter collapse of the elongated sacrificial tubes during the HIP process; and further characterized in that a solvent is directed through the solvent inlet channels when chemically dissolving the elongated sacrificial tubes following removal the non-compressible material from the solvent inlet channels.