mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus of a user equipment, UE, comprising baseband processing circuitry to: generate a scheduling request to be transmitted to an evolved Node B, eNB, if the UE has uplink data for transmission, wherein the scheduling request is a UE specific scheduling request generated by the baseband processing circuitry in one or more resource blocks that occupy the same time resources as a physical random access channel, PRACH and different frequency resources than the PRACH; process an uplink grant received from the eNB; and process the uplink data to be transmitted to the eNB in response to the uplink grant. generate a scheduling request to be transmitted to an evolved Node B, eNB, if the UE has uplink data for transmission, wherein the scheduling request is a UE specific scheduling request generated by the baseband processing circuitry in one or more resource blocks that occupy the same time resources as a physical random access channel, PRACH and different frequency resources than the PRACH; process an uplink grant received from the eNB; and process the uplink data to be transmitted to the eNB in response to the uplink grant.
A method for recovering crude oil from a subterranean formation that is penetrated by at least one injection well and one production well, comprising: injecting a nonionic surfactant in carbon dioxide into the subterranean formation, where the nonionic surfactant has a polydispersity of 1.01 to 1.10 and is prepared by an alkoxylation reaction with a double metal cyanide catalyst of a first epoxide, a second epoxide different than the first epoxide, and a branched aliphatic alcohol having 6 to 8 carbon atoms; and recovering crude oil from the subterranean formation from a production well. injecting a nonionic surfactant in carbon dioxide into the subterranean formation, where the nonionic surfactant has a polydispersity of 1.01 to 1.10 and is prepared by an alkoxylation reaction with a double metal cyanide catalyst of a first epoxide, a second epoxide different than the first epoxide, and a branched aliphatic alcohol having 6 to 8 carbon atoms; and recovering crude oil from the subterranean formation from a production well.
Method of generating fluid bubbles in a liquid, wherein an oscillator for generating two or more pulsating fluid flows from a constant fluid flow is used, whereby the oscillator comprises a first fluid inlet for receiving a fluid flow and a first fluid outlet and a second fluid outlet for each outputting a said pulsating fluid flow, whereby the oscillator comprises a bistable fluidic amplifier for amplifying a control signal, whereby the fluidic amplifier is placed between the first fluid inlet and the fluid outlets , whereby the oscillator comprises a piezo-electric actuator for generating said control signal, whereby the piezo-electric actuator is connected to a source of alternating voltage, whereby the first fluid inlet is connected to a source of pressurized fluid, whereby a pulsating fluid flow from at least one of the fluid outlets is used to generate fluid bubbles in the liquid, characterized in that the fluid bubbles are air bubbles and are used to form a bubble screen under water to attenuate the sound energy of underwater sound coming from a source of undesirable underwater sound.
A support for mounting an accessory equipment assembly with one or more accessory equipment units , especially current transformer units, to a base of a bushing comprising a conductor surrounded by an insulator part such that each of the accessory equipment units is positioned in a defined way regarding the conductor , and a frame having external fastening structures , which frame holds the accessory equipment assembly in its interior, wherein said support comprises aligning means for aligning each individual accessory equipment unit separately with respect to the conductor , a first group of these aligning means allows a movement of each accessory equipment unit substantially parallel to the conductor and an individual tilt of each accessory equipment unit within the accessory equipment assembly , a second group of these aligning means allows a movement of the accessory equipment assembly as a whole in two orthogonal directions in a plane perpendicular to the conductor , characterised in that both groups of aligning means allow the movement via adjustment slots and counter elements guided in these adjustment slots (58, and the aligning means comprise a set of U-shaped elements including the adjustment slots . a conductor surrounded by an insulator part such that each of the accessory equipment units is positioned in a defined way regarding the conductor , and a frame having external fastening structures , which frame holds the accessory equipment assembly in its interior, wherein said support comprises aligning means for aligning each individual accessory equipment unit separately with respect to the conductor , a first group of these aligning means allows a movement of each accessory equipment unit substantially parallel to the conductor and an individual tilt of each accessory equipment unit within the accessory equipment assembly , a second group of these aligning means allows a movement of the accessory equipment assembly as a whole in two orthogonal directions in a plane perpendicular to the conductor , characterised in that both groups of aligning means allow the movement via adjustment slots and counter elements guided in these adjustment slots (58, and the aligning means comprise a set of U-shaped elements including the adjustment slots .
A method for forming an electrical connection of an electrode to a conductor to form an electrode-conductor composite , comprising (i) bringing an electrode and/or a conductor into contact with a metalliferous layer that comprises a metal powder or a metalliferous suspension, or consists thereof; (ii) irradiating the metalliferous layer with a laser; and (iii) thus forming a coherent, electroconductive metal layer . (i) bringing an electrode and/or a conductor into contact with a metalliferous layer that comprises a metal powder or a metalliferous suspension, or consists thereof; (ii) irradiating the metalliferous layer with a laser; and (iii) thus forming a coherent, electroconductive metal layer .
A reciprocating compressor including a crank mechanism which generates a driving force for reciprocating a piston in a cylinder so that gas flowing into the cylinder is compressed by using the piston reciprocating in the cylinder , the reciprocating compressor comprising: a piston rod extending along a predetermined central axis across an opening formed in an end of the cylinder , the piston rod being coupled to the piston and the crank mechanism to transmit the driving force from the crank mechanism to the piston ; a rear head through which the piston rod extends, the rear head being configured to close the opening of the cylinder ; and a rod ring portion configured to prevent the gas in the cylinder from leaking from a gap between the rear head and the piston rod , characterised in that the piston rod includes an outer circumferential surface on which an annular groove portion is formed to surround the central axis of the piston rod , and wherein the rod ring portion includes: an inner circumferential portion which is fit into the annular groove portion ; and an outer circumferential portion in sliding contact with an inner circumferential surface of the rear head while the piston rod reciprocates in an extension direction of the central axis together with the piston . a piston rod extending along a predetermined central axis across an opening formed in an end of the cylinder , the piston rod being coupled to the piston and the crank mechanism to transmit the driving force from the crank mechanism to the piston ; a rear head through which the piston rod extends, the rear head being configured to close the opening of the cylinder ; and a rod ring portion configured to prevent the gas in the cylinder from leaking from a gap between the rear head and the piston rod , characterised in that the piston rod includes an outer circumferential surface on which an annular groove portion is formed to surround the central axis of the piston rod , and wherein the rod ring portion includes: an inner circumferential portion which is fit into the annular groove portion ; and an outer circumferential portion in sliding contact with an inner circumferential surface of the rear head while the piston rod reciprocates in an extension direction of the central axis together with the piston .
Use of a polymer consisting of a polymer backbone having a plurality of carbon atoms; and a plurality of reactive groups (-CO 2 R), wherein each reactive group is coupled to a separate carbon atom of the backbone; to fabricate a strand for weaving into a fabric, wherein the polymer is represented by the following formula: wherein n is any integer; R', R", and R'" are independently substituted or unsubstitured alkyl, alkenyl, alkynyl or aryl groups; and R is H, a mono, di, tri, tetra or other valent cation, or substituted or unsubstituted alkyl, alkenyl, alkynyl or aryl group. R', R", and R'" are independently substituted or unsubstitured alkyl, alkenyl, alkynyl or aryl groups; and R is H, a mono, di, tri, tetra or other valent cation, or substituted or unsubstituted alkyl, alkenyl, alkynyl or aryl group.
A prepreg laminate, comprising prepregs [a] having reinforcing fibers impregnated with a resin, and a base material [b] not impregnated with a resin, wherein at least two of the prepregs [a] are stacked in succession, and both sides of the base material [b] are sandwiched by the prepregs [a], wherein the basis weight of the base material [b] is 5 to 100 g/m 2 and wherein the thickness of the base material [b] is 0.1 to 1.5 mm. at least two of the prepregs [a] are stacked in succession, and both sides of the base material [b] are sandwiched by the prepregs [a], wherein the basis weight of the base material [b] is 5 to 100 g/m 2 and wherein the thickness of the base material [b] is 0.1 to 1.5 mm. wherein the basis weight of the base material [b] is 5 to 100 g/m 2 and wherein the thickness of the base material [b] is 0.1 to 1.5 mm.
A compound of Formula I: where Xxx is Asn, Gln, Ser, or Thr, where A 1 is H or Ac, where A 2 is OH or NH 2 , and where Yyy is Lys, Arg, D-Lys, or D-Arg, or a pharmaceutically acceptable salt, single stereoisomer, mixture of stereoisomers, or ester thereof. where Xxx is Asn, Gln, Ser, or Thr, where A 1 is H or Ac, where A 2 is OH or NH 2 , and where Yyy is Lys, Arg, D-Lys, or D-Arg, or
Device , in particular for tissue coagulation, with a probe having a probe body , with at least one electrode which can be loaded with an electrical voltage (U HF ) and is arranged in the probe body , with at least one light-guide device which is assigned to the probe body and can be connected to an optical measuring device , wherein the measuring device is configured as an optical, interferometric distance measuring device which emits and receives light in the vicinity of the electrode, characterised in that the probe body has at least one fluid channel which can be connected to a gas source , the electrode is arranged in the fluid channel , and the measuring device is configured to determine the distance of the probe from the tissue . with a probe having a probe body , with at least one electrode which can be loaded with an electrical voltage (U HF ) and is arranged in the probe body , with at least one light-guide device which is assigned to the probe body and can be connected to an optical measuring device , wherein the measuring device is configured as an optical, interferometric distance measuring device which emits and receives light in the vicinity of the electrode, characterised in that the probe body has at least one fluid channel which can be connected to a gas source , the electrode is arranged in the fluid channel , and the measuring device is configured to determine the distance of the probe from the tissue .
A lyophilized formulation comprising: a fusion protein including a humanized anti-hTfR antibody and human iduronate-2-sulfatase, as an active ingredient, wherein the light chain of the humanized anti-hTfR antibody has the amino acid sequence set forth as SEQ ID NO:6, and wherein the heavy chain of the humanized anti-hTfR antibody having the amino acid sequence set forth as SEQ ID NO: 10 is linked, on the C-terminal side thereof, to the human iduronate-2-sulfatase via a linker sequence; and wherein the formulation further comprises: sodium chloride, sucrose, polyoxyethylene polyoxypropylene glycol, and a phosphate buffer; and wherein the amounts of the sodium chloride, the sucrose, and the polyoxyethylene polyoxypropylene glycol are 0.16 (w/w), 15 (w/w), and 0.065 (w/w), respectively, relative to the amount of the fusion protein; and wherein the pH is 6.0 to 7.0 when dissolved in pure water. a fusion protein including a humanized anti-hTfR antibody and human iduronate-2-sulfatase, as an active ingredient, wherein the light chain of the humanized anti-hTfR antibody has the amino acid sequence set forth as SEQ ID NO:6, and wherein the heavy chain of the humanized anti-hTfR antibody having the amino acid sequence set forth as SEQ ID NO: 10 is linked, on the C-terminal side thereof, to the human iduronate-2-sulfatase via a linker sequence; and wherein the formulation further comprises: sodium chloride, sucrose, polyoxyethylene polyoxypropylene glycol, and a phosphate buffer; and wherein the amounts of the sodium chloride, the sucrose, and the polyoxyethylene polyoxypropylene glycol are 0.16 (w/w), 15 (w/w), and 0.065 (w/w), respectively, relative to the amount of the fusion protein; and wherein the pH is 6.0 to 7.0 when dissolved in pure water. sodium chloride, sucrose, polyoxyethylene polyoxypropylene glycol, and a phosphate buffer; and wherein the amounts of the sodium chloride, the sucrose, and the polyoxyethylene polyoxypropylene glycol are 0.16 (w/w), 15 (w/w), and 0.065 (w/w), respectively, relative to the amount of the fusion protein; and wherein the pH is 6.0 to 7.0 when dissolved in pure water.
Method for adjusting the speed (v ego ) of a vehicle (EGO) moving with an initial speed (v ego, 0 ) to a target speed (v ego, target ), comprising the steps: - step (S14): determining a control profile comprising at least one control profile part, wherein the control profile is comprises at least one control parameter for the vehicle (EGO) and allowing the vehicle (EGO) to change its speed (v ego ) from the initial speed (v ego, 0 ) to the target speed (v ego, target ); - step (S16): adjusting the speed (v ego ) of the vehicle (EGO) according to the control profile or supplying the control profile to a speed control system of the vehicle in order to adjust the speed (v ego ) of the vehicle (EGO), wherein one control profile part comprises exclusively control parameter causing an acceleration or a deceleration, characterized in that the control profile consists of two control profile parts, one of the two control profile parts comprises exclusively control parameter causing an acceleration and the other of the two control profile parts causing a deceleration, and wherein the amount of the average acceleration and/or deceleration (a ego ) caused by two different control profile parts is equal. - step (S14): determining a control profile comprising at least one control profile part, wherein the control profile is comprises at least one control parameter for the vehicle (EGO) and allowing the vehicle (EGO) to change its speed (v ego ) from the initial speed (v ego, 0 ) to the target speed (v ego, target ); - step (S16): adjusting the speed (v ego ) of the vehicle (EGO) according to the control profile or supplying the control profile to a speed control system of the vehicle in order to adjust the speed (v ego ) of the vehicle (EGO), wherein one control profile part comprises exclusively control parameter causing an acceleration or a deceleration, characterized in that the control profile consists of two control profile parts, one of the two control profile parts comprises exclusively control parameter causing an acceleration and the other of the two control profile parts causing a deceleration, and wherein the amount of the average acceleration and/or deceleration (a ego ) caused by two different control profile parts is equal. one control profile part comprises exclusively control parameter causing an acceleration or a deceleration, characterized in that the control profile consists of two control profile parts, one of the two control profile parts comprises exclusively control parameter causing an acceleration and the other of the two control profile parts causing a deceleration, and wherein the amount of the average acceleration and/or deceleration (a ego ) caused by two different control profile parts is equal.
A machining spindle comprising a tool-holding shaft , having a front end on which a tool holder is adapted to be mounted via an attachment system between the tool holder and the front end of the shaft, the spindle comprising a first drive actuator of the shaft connected to a coupling member in sliding connection with a first segment of the shaft to drive the shaft in rotation and a second drive actuator connected to a nut in helical connection with a second segment of the shaft to axially displace the shaft, said first and second segments extending successively over a common length of the shaft between the front end of the shaft and an opposite end of the shaft, the spindle being characterised in that it comprises a rod for controlling the attachment system of the tool holder, which is connected to the second segment of the shaft by a complete connection, and in that it comprises blocking means movably mounted between the first segment and the second segment of the shaft via tilting means , between a first position in which the second segment of the shaft is in complete connection with the first segment of the shaft, and a second position in which the second segment of the shaft is in sliding connection with the first segment of the shaft, enabling an axial movement of the second segment relative to the first segment to allow axially displacing the control rod under the action of the second drive actuator so as to control the attachment system in a position of loosening the tool holder.
Cleaning composition, which is a dry shampoo, comprising a base and propellant, wherein the base comprises sebum absorber which comprises magnetic particles, wherein the magnetic particles comprise styrene/polydivinylbenzene copolymer and have a particle size in the range of from 4 nm to 50 nm, and wherein the magnetic particles are coated with a stabilizing dispersing agent, and wherein the magnetic particles are dispersed in a liquid carrier.
Apparatus for energy generation, where the apparatus for energy generation comprises a reformer , a gas purification membrane and a fuel cell , where the reformer is configured for producing hydrogen, where the gas purification membrane is configured for separating hydrogen from the gas mixture produced in the reformer , where the fuel cell is configured for generating electric energy by reaction of hydrogen separated off by means of the gas purification membrane , where the apparatus for energy generation comprises a conversion apparatus for converting carbon monoxide into methane, characterized in that the conversion apparatus is arranged between the gas purification membrane and the fuel cell , where the conversion apparatus and the gas purification membrane are thermally coupled, where the conversion apparatus and the gas purification membrane are arranged within a common housing , where the conversion apparatus is arranged above the gas purification membrane .
A method for producing a compound of a formula , comprising reacting a compound of a formula with a compound of a formula by using a tertiary alcohol and a base: wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , and R 9 are each independently a hydrogen atom, a halogen atom, a (C1-C4) alkyl, or a (C1-C4) alkoxy, wherein the reaction is performed at -5°C to 80°C, wherein the reaction is performed in the presence of a solvent, and wherein the amount of the compound of the formula used is 0.7 equivalent to 2.0 equivalents per 1 equivalent of the compound of the formula . wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , and R 9 are each independently a hydrogen atom, a halogen atom, a (C1-C4) alkyl, or a (C1-C4) alkoxy, wherein the reaction is performed at -5°C to 80°C, wherein the reaction is performed in the presence of a solvent, and wherein the amount of the compound of the formula used is 0.7 equivalent to 2.0 equivalents per 1 equivalent of the compound of the formula .
Arrangement comprising a copper busbar and a self-clinching nut , wherein the copper busbar has at least one stepped hole for fastening a cable shoe by means of a screw connection , wherein the stepped hole extends from a first surface of the copper busbar to a second surface of the copper busbar , wherein the stepped hole has at least a first region , a second region and a third region , wherein the first region of the stepped hole adjoins the first surface , wherein the radius of the stepped hole is constant over the length of the second region having the second radius value (r 2 ), wherein the third region adjoins the second surface , wherein the third region has, at least at the second surface , a radius having a third radius value (r 3 ), wherein the third radius value (r 3 ) is less than the second radius value (r 2 ), wherein the self-clinching nut is pressed into the first surface in the vicinity of the stepped hole centrally into the stepped hole in such a way that the radius in the first region assumes a first radius value (r 1 ) and a step is formed between the first region and the second region in the stepped hole , in which the radius at a boundary from the first region to the second region has a jump from a first radius value (r 1 ) to a second radius value (r 2 ), so that a seating surface is formed parallel to the first surface at the boundary between first region and second region , with which the toothing of the collar of the self-clinching nut engages, and the second radius value (r 2 ) is less than the first radius value (r 1 ), wherein the cable shoe can be fastened to the second surface by means of a screw , which can be inserted into the stepped hole from the side of the second surface , by means of the self-clinching nut .