mhurhangee/ep-ind-claims huggingface dataset:
Method for spooling a yarn from a yarn source onto a target spool in a spooling machine, wherein the yarn is guided between the yarn source and the target spool in a running direction through a yarn cleaner for ensuring yarn quality and wherein in case of detection of a yarn defect the yarn defect is cut out and thereafter the yarn is spliced, wherein in case of detection of the yarn defect the yarn is first pulled back against the running direction and only after that it is cut off, characterized in that, in order to pull back the yarn in case of detection of the yarn defect, a tensile force is exerted on the yarn in an area between the yarn source and the yarn cleaner by means of a pull-back-device.
A method of reverse transcription, wherein the method comprises the steps of a) providing a sample comprising RNA, b) contacting the sample with a carrier nucleic acid thereby generating a mixture, c) applying the mixture to a matrix under conditions such that binding of the RNA and the carrier nucleic acid to the matrix occurs, d) separating the matrix with the RNA and the carrier nucleic acid bound to the matrix from the mixture, e) eluting the RNA and the carrier nucleic acid from the matrix thereby generating an eluate, f) adding a blocking nucleic acid to the eluate under conditions such that hybridization of the blocking nucleic acid to the carrier nucleic acid occurs, g) adding a primer to the eluate from step f) under conditions such that hybridization of the primer to the RNA occurs, and h) reverse transcribing the RNA into cDNA. a) providing a sample comprising RNA, b) contacting the sample with a carrier nucleic acid thereby generating a mixture, c) applying the mixture to a matrix under conditions such that binding of the RNA and the carrier nucleic acid to the matrix occurs, d) separating the matrix with the RNA and the carrier nucleic acid bound to the matrix from the mixture, e) eluting the RNA and the carrier nucleic acid from the matrix thereby generating an eluate, f) adding a blocking nucleic acid to the eluate under conditions such that hybridization of the blocking nucleic acid to the carrier nucleic acid occurs, g) adding a primer to the eluate from step f) under conditions such that hybridization of the primer to the RNA occurs, and h) reverse transcribing the RNA into cDNA.
A pump assembly, including a plurality of component parts which include a seal housing, a drive shaft having a rotation axis, an impeller and a pump housing, the pump housing which includes a main liner and an outer casing, the pump assembly further including a pump housing support which comprises: - a base and - a mounting member operatively connected to the base and which includes a ring shaped body portion to which a part of the pump housing can be mounted wherein the mounting member further includes - a generally annular locating flange extending from an outer face of the ring shaped body portion, the locating flange having first and second locating surfaces (66, 68) on opposing sides thereof, the locating surfaces (66, 68) being generally parallel to the rotation axis, the first locating surface facing inwardly towards the rotation axis and the second locating surface facing outwardly away from the rotational axis and opposite thereto, wherein the seal housing is located on the first locating surface, and the outer casing is located on the second locating surface, characterised in that, in use, the main liner is located on the second locating surface. - a base and - a mounting member operatively connected to the base and which includes a ring shaped body portion to which a part of the pump housing can be mounted wherein the mounting member further includes - a generally annular locating flange extending from an outer face of the ring shaped body portion, the locating flange having first and second locating surfaces (66, 68) on opposing sides thereof, the locating surfaces (66, 68) being generally parallel to the rotation axis, the first locating surface facing inwardly towards the rotation axis and the second locating surface facing outwardly away from the rotational axis and opposite thereto,
A method for processing a workpiece by means of a processing beam which emerges from a processing head, wherein the workpiece and the processing head can be moved relative to one another in a working space, characterized by the following steps: - automated scanning of a workpiece to be processed arranged in the working space by means of an OCT measuring beam of an optical coherence tomograph guided by means of the processing head, wherein the position of the processing head in the working space and the position of the OCT measuring beam relative to the processing head are known in each case; - determining at least one of the following features on the basis of distance measurement values of the optical coherence tomograph determined during automated scanning: - the position of the workpiece to be processed in the working space; - the presence of a workpiece to be processed in the working space; - the presence of the correct workpiece to be processed in the working space; and - the presence of a processing feature of the workpiece to be processed that was performed on the workpiece in a previous processing step. - automated scanning of a workpiece to be processed arranged in the working space by means of an OCT measuring beam of an optical coherence tomograph guided by means of the processing head, wherein the position of the processing head in the working space and the position of the OCT measuring beam relative to the processing head are known in each case; - determining at least one of the following features on the basis of distance measurement values of the optical coherence tomograph determined during automated scanning: - the position of the workpiece to be processed in the working space; - the presence of a workpiece to be processed in the working space; - the presence of the correct workpiece to be processed in the working space; and - the presence of a processing feature of the workpiece to be processed that was performed on the workpiece in a previous processing step. - the position of the workpiece to be processed in the working space; - the presence of a workpiece to be processed in the working space; - the presence of the correct workpiece to be processed in the working space; and - the presence of a processing feature of the workpiece to be processed that was performed on the workpiece in a previous processing step.
A sheet processing apparatus comprising: a first pair of conveying members (R1; R1a, R1b) and a third pair of conveying members (Rt2; R3, R4) that convey a sheet; a second pair of conveying members (Rt1; R2, R3) that receives the sheet conveyed by the first pair of conveying members (R1; R1a, R1b) and conveys the sheet downstream; and a bifurcating claw that moves to a first guiding position for guiding the sheet to the second pair of conveying members (Rt1; R2, R3), a second guiding position for guiding a deflected portion of the sheet to the third pair of conveying members (Rt2; R3, R4), and a third guiding position for guiding a leading end of the sheet to the third pair of conveying members (Rt2; R3, R4), wherein the second pair of conveying members (Rt1; R2, R3) is rotated backward in a state in which the sheet is held by the first pair of conveying members (R1; R1a, R1b) and the second pair of conveying members (Rt1; R2, R3), to guide the deflected portion to the third pair of conveying members (Rt2; R3, R4) and cause the deflected portion to be folded by the third pair of conveying members (Rt2; R3, R4), the bifurcating claw includes an upper bifurcating claw and a lower bifurcating claw that vary a relative position to each other, and the sheet passes through between the upper bifurcating claw and the lower bifurcating claw. a first pair of conveying members (R1; R1a, R1b) and a third pair of conveying members (Rt2; R3, R4) that convey a sheet; a second pair of conveying members (Rt1; R2, R3) that receives the sheet conveyed by the first pair of conveying members (R1; R1a, R1b) and conveys the sheet downstream; and a bifurcating claw that moves to a first guiding position for guiding the sheet to the second pair of conveying members (Rt1; R2, R3), a second guiding position for guiding a deflected portion of the sheet to the third pair of conveying members (Rt2; R3, R4), and a third guiding position for guiding a leading end of the sheet to the third pair of conveying members (Rt2; R3, R4), wherein the second pair of conveying members (Rt1; R2, R3) is rotated backward in a state in which the sheet is held by the first pair of conveying members (R1; R1a, R1b) and the second pair of conveying members (Rt1; R2, R3), to guide the deflected portion to the third pair of conveying members (Rt2; R3, R4) and cause the deflected portion to be folded by the third pair of conveying members (Rt2; R3, R4), the bifurcating claw includes an upper bifurcating claw and a lower bifurcating claw that vary a relative position to each other, and the sheet passes through between the upper bifurcating claw and the lower bifurcating claw.
A method in a mobile station for performing random access, comprising: receiving, from a base station on a first cell, a message identifying a random access preamble to transmit on a second cell, wherein the first and second cells (610, 611) operate on different frequencies; determining whether the random access preamble is from a set of contention based random access preambles; performing a transmission of the random access preamble on the second cell; receiving a random access response message from the base station, wherein the random access response message is addressed to a unique identifier of the mobile station and includes an uplink resource grant and timing advance information; and transmitting in response to the random access response message, if the identified random access preamble is from the set of contention based preambles, a timing verification message on the uplink frequency of the second cell over resources granted by the uplink resource grant; wherein the timing verification message is transmitted using a time advance which is derived by the mobile station based on the timing advance information that is included in the received random access response message. receiving, from a base station on a first cell, a message identifying a random access preamble to transmit on a second cell, wherein the first and second cells (610, 611) operate on different frequencies; determining whether the random access preamble is from a set of contention based random access preambles; performing a transmission of the random access preamble on the second cell; receiving a random access response message from the base station, wherein the random access response message is addressed to a unique identifier of the mobile station and includes an uplink resource grant and timing advance information; and transmitting in response to the random access response message, if the identified random access preamble is from the set of contention based preambles, a timing verification message on the uplink frequency of the second cell over resources granted by the uplink resource grant; wherein the timing verification message is transmitted using a time advance which is derived by the mobile station based on the timing advance information that is included in the received random access response message.
A surgical distractor comprising: a base plate (102, 202, 302, 402); a first intermediate stage (106a, 206a, 306a) telescopically coupled to the base plate; a distraction plate (104, 204, 304, 404); and one or more further intermediate stages between the first intermediate stage and the distraction plate, wherein the one or more further intermediate stages are telescopically coupled together; wherein one (106b, 206b, 306b) of the one or more further intermediate stages is telescopically coupled to the distraction plate; wherein one of the one or more further intermediate stages is telescopically coupled to the first intermediate stage, and wherein each intermediate stage is arranged to rotate relative to at least one of the base plate and the distraction plate to cause telescopic movement between that intermediate stage and at least one of the base plate and the distraction plate such that the distraction plate moves towards or away from the base plate. a base plate (102, 202, 302, 402); a first intermediate stage (106a, 206a, 306a) telescopically coupled to the base plate; a distraction plate (104, 204, 304, 404); and one or more further intermediate stages between the first intermediate stage and the distraction plate, wherein the one or more further intermediate stages are telescopically coupled together; wherein one (106b, 206b, 306b) of the one or more further intermediate stages is telescopically coupled to the distraction plate; wherein one of the one or more further intermediate stages is telescopically coupled to the first intermediate stage, and wherein each intermediate stage is arranged to rotate relative to at least one of the base plate and the distraction plate to cause telescopic movement between that intermediate stage and at least one of the base plate and the distraction plate such that the distraction plate moves towards or away from the base plate.
An identification device comprising a transmitter unit received in an outer housing, wherein the outer housing comprises an attachment means for attaching the device to a separate wrist strap, characterised in that the attachment means is single-use and comprises a flap adapted to slide between the wrist strap and a patient in order to clamp the strap between said flap and the body of the outer housing, and in that the outer housing is closed by a single-use catch (10, 12) which, once broken to allow release of the transmitter unit, cannot be re-used.
A radio frequency amplifier comprising: a transistor having a source, a drain and a gate; a transformer having a first coil conductor and a second coil conductor, the first coil conductor magnetically coupling to the second coil conductor, the second coil conductor is directly connected to the gate of the transistor, the first coil conductor is directly connected to the source of the transistor; a variable capacitor (C tune) connected in parallel with the second coil conductor, and connected to the gate of the transistor; a signal input end (V in); and a signal output end (Vout), wherein the signal input end (V in) connects to the source of the transistor and the signal output end connects to the drain of the transistor, and wherein the radio frequency amplifier further comprising an inductor connected between the signal input end (V in) and the source of the transistor, and wherein as the capacitance value of the variable capacitor (C tune) is adjusted, the magnetic flux passing through the first coil conductor is changed, and thus a current value passing through the second conductor is changed because of the coupling effect, and an output impedance (R out) of the transistor is changed a transistor having a source, a drain and a gate; a transformer having a first coil conductor and a second coil conductor, the first coil conductor magnetically coupling to the second coil conductor, the second coil conductor is directly connected to the gate of the transistor, the first coil conductor is directly connected to the source of the transistor; a variable capacitor (C tune) connected in parallel with the second coil conductor, and connected to the gate of the transistor; a signal input end (V in); and a signal output end (Vout), wherein the signal input end (V in) connects to the source of the transistor and the signal output end connects to the drain of the transistor, and wherein the radio frequency amplifier further comprising an inductor connected between the signal input end (V in) and the source of the transistor, and wherein as the capacitance value of the variable capacitor (C tune) is adjusted, the magnetic flux passing through the first coil conductor is changed, and thus a current value passing through the second conductor is changed because of the coupling effect, and an output impedance (R out) of the transistor is changed
A process for catalytic conversion of feedstock comprising at least one alkylatable aromatic compound and an alkylating agent to conversion product comprising an alkylaromatic compound which comprises contacting in an alkylation reactor said feedstock in at least partial liquid phase under catalytic conversion conditions with a catalyst composition comprising a porous crystalline material and a binder, said catalyst composition having a ratio of crystal/binder of from 20/80 to 60/40, wherein the porous crystalline material is MCM-22, and wherein said feedstock aromatic compound is benzene and said alkylating agent is propylene, said conversion product comprises cumene, and said conversion conditions include a temperature of from 0°C up to 250°C, a pressure of from 20 to 25000 kPa-a, a weight hourly space velocity (WHSV) based on propylene alkylating agent of from 0.1 hr -1 to 250 hr -1, and a ratio of benzene to propylene in the alkylation reactor of from 0.5:1 to 30:1 molar, wherein the effluent from the alkylation reactor is distilled to recover excess benzene which is recycled to the alkylation reactor and the bottoms from the distillation are further distilled to separate monoalkylated product from polyalkylated product and other heavies and the polyalkylated products separated from the alkylation reactor effluent are reacted with additional benzene in a transalkylation reactor, separate from the alkylation reactor, over a transalkylation catalyst.
A suture anchor comprising a shell and an anchor member: the shell comprising a body having a distal end, a proximal end and sidewalls therebetween defining an axial cannulation therethrough; the anchor member comprising a body having a distal end and a proximal end sized to fit within the cannulation; characterized by: the sidewalls defining a lateral cut-out such that with the anchor member received within the cannulation a first lateral portion of the anchor member is exposed laterally and a second, laterally opposite, lateral portion of the anchor member is enclosed by the sidewalls; and a friction enhancement on the first lateral portion whereby to frictionally engage a bone surface when the suture anchor is disposed within a bone tunnel defined by the bone surface. the shell comprising a body having a distal end, a proximal end and sidewalls therebetween defining an axial cannulation therethrough; the anchor member comprising a body having a distal end and a proximal end sized to fit within the cannulation; the sidewalls defining a lateral cut-out such that with the anchor member received within the cannulation a first lateral portion of the anchor member is exposed laterally and a second, laterally opposite, lateral portion of the anchor member is enclosed by the sidewalls; and a friction enhancement on the first lateral portion whereby to frictionally engage a bone surface when the suture anchor is disposed within a bone tunnel defined by the bone surface.
A process for producing a formulation adapted for oral administration, wherein the pharmaceutical formulation comprises at least 1 000 IU of a Vitamin D, per dosage form, and wherein the pharmaceutical formulation comprises, or consists of, an aqueous dispersion of micelles encapsulating said Vitamin D, and wherein the micelles are formed of, and essentially consist of, a tocopherol polyalkylene glycol, said process comprising the steps of a. combining an amount of Vitamin D in a molten state with an amount of tocopherol polyalkylene glycol, such as D-α-tocopherol polyethylene glycol succinate, in a molten state to form a first melt mixture, wherein preferably the amount of Vitamin D constitutes of from 1 to 10 weight percent of the first mixture, based on the total amount of tocopherol polyalkylene glycol and Vitamin D, b. stirring and maintaining a temperature for the first melt mixture to remain in the molten state, c. combining, while stirring, the first melt mixture with an aqueous solution having an acidic pH, wherein the aqueous solution having an acidic pH has about the same temperature than the first mixture melt, to obtain a second mixture, d. stirring and heating the second mixture until an aqueous dispersion of micelles encapsulating the Vitamin D is formed. a. combining an amount of Vitamin D in a molten state with an amount of tocopherol polyalkylene glycol, such as D-α-tocopherol polyethylene glycol succinate, in a molten state to form a first melt mixture, wherein preferably the amount of Vitamin D constitutes of from 1 to 10 weight percent of the first mixture, based on the total amount of tocopherol polyalkylene glycol and Vitamin D, b. stirring and maintaining a temperature for the first melt mixture to remain in the molten state, c. combining, while stirring, the first melt mixture with an aqueous solution having an acidic pH, wherein the aqueous solution having an acidic pH has about the same temperature than the first mixture melt, to obtain a second mixture, d. stirring and heating the second mixture until an aqueous dispersion of micelles encapsulating the Vitamin D is formed.
Support core composite panel for interior fittings, in particular for watercraft, - with a support core of expanded glass, - with at least one cover layer (4; 4.1; 4.2) which covers the support core on one side (2.1; 2.2) substantially over its entire surface, - with a resilient adhesive (3; 3.1; 3.2) which fixes the cover layer (4; 4.1; 4.2) on the support core, the adhesive (3; 3.1; 3.2) having a Shore hardness of between 30 and 80, characterised in that the cover layer (4; 4.1; 4.2) has a thickness between 0.4 and 0.8 mm, that the support core has a thickness between 20 and 30 mm and the adhesive layer (3; 3.1; 3.2) has a thickness between 0.7 and 1.5 mm. - with a support core of expanded glass, - with at least one cover layer (4; 4.1; 4.2) which covers the support core on one side (2.1; 2.2) substantially over its entire surface, - with a resilient adhesive (3; 3.1; 3.2) which fixes the cover layer (4; 4.1; 4.2) on the support core, the adhesive (3; 3.1; 3.2) having a Shore hardness of between 30 and 80, characterised in that the cover layer (4; 4.1; 4.2) has a thickness between 0.4 and 0.8 mm, that the support core has a thickness between 20 and 30 mm and the adhesive layer (3; 3.1; 3.2) has a thickness between 0.7 and 1.5 mm.
Reducing agent tank for a reducing agent and preferably for installation on a motor vehicle, having a housing for accommodating the reducing agent, having a tank segment, and preferably having a delivery module for delivering the reducing agent, wherein the tank segment has at least one integrated fluid duct (3.1) for conducting a fluid for warming the reducing agent, in particular in such a way that the tank segment itself forms the fluid duct (3.1), wherein a tank element of plastics material is arranged between the housing and the tank segment, characterized in that the plastics material is additized with at least one additional material for increasing the thermal conductivity.