mhurhangee/ep-ind-claims huggingface dataset:
Method for amplification of a single copy DNA target nucleic acid from one single living eucaryotic cell of human, animal or plant origin, comprising the steps of a) transfering a liquid sample with a first volume comprising the single living eucaryotic cell into a a well of a microtiter plate, b) adding to said well a PCR reaction buffer with a second volume, whereas said second volume is at least 2x as large as said first volume and the final volume does not exceed 25 μl, said buffer comprising at least one pair of amplification primers, a thermostable DNA polymerase and dNTPs, c) incubating said well for at least 30 seconds to not more than 15 minutes at at least 90°C, thereby lysing the living cell in the PCR reaction buffer without any prior addition of a specific lysis step reagent and activating the activity of said thermostable DNA polymerase, d) amplifying said target by means of a polymerase chain reaction with a thermostable DNA dependent DNA polymerase without performance of an intermediate purification step, wherein steps a) to d) are performed within the same reaction vessel. a) transfering a liquid sample with a first volume comprising the single living eucaryotic cell into a a well of a microtiter plate, b) adding to said well a PCR reaction buffer with a second volume, whereas said second volume is at least 2x as large as said first volume and the final volume does not exceed 25 μl, said buffer comprising at least one pair of amplification primers, a thermostable DNA polymerase and dNTPs, c) incubating said well for at least 30 seconds to not more than 15 minutes at at least 90°C, thereby lysing the living cell in the PCR reaction buffer without any prior addition of a specific lysis step reagent and activating the activity of said thermostable DNA polymerase, d) amplifying said target by means of a polymerase chain reaction with a thermostable DNA dependent DNA polymerase without performance of an intermediate purification step,
A device for cleaning a surface comprising: a pressurised container containing a cleaning composition; a nozzle through which the composition is arranged to be dispensed, in use, upon an actuation of a valve; and a shroud attached to the container and surrounding the nozzle; the shroud having a hollow generally cylindrical portion adjacent to the nozzle for guiding the dispensed product in the direction in which it leaves the nozzle, and a flared portion at the end of the cylindrical portion furthest from the nozzle forming a spreading plate for guiding the dispensed product laterally when in contact, in use, with a surface to be cleaned, characterised in that a containment ring surrounds the spreading plate to confine the cleaning composition. a pressurised container containing a cleaning composition; a nozzle through which the composition is arranged to be dispensed, in use, upon an actuation of a valve; and a shroud attached to the container and surrounding the nozzle; the shroud having a hollow generally cylindrical portion adjacent to the nozzle for guiding the dispensed product in the direction in which it leaves the nozzle, and a flared portion at the end of the cylindrical portion furthest from the nozzle forming a spreading plate for guiding the dispensed product laterally when in contact, in use, with a surface to be cleaned, characterised in that a containment ring surrounds the spreading plate to confine the cleaning composition.
Orthopaedic device for a lower limb of a human comprising: - a front segment adapted to receive the sole of a forefoot of a foot, - a rear segment adapted to receive the lower face of the heel of said foot, in which: - the front segment and the rear segment are formed from two pieces which are distinct from one another, - the front segment and the rear segment are connected by at least one upper arch, which: ∘ extends above the front segment and the rear segment, providing a recess for receiving the foot, ∘ is adapted to keep the front segment and the rear segment in an inactive position, characterised in that: the upper arch is resilient and adapted to make possible a relative displacement of said front segment and said rear segment in relation to one another, starting from the inactive position, and to bring back the front segment and the rear segment resiliently into the inactive position. - a front segment adapted to receive the sole of a forefoot of a foot, - a rear segment adapted to receive the lower face of the heel of said foot, - the front segment and the rear segment are formed from two pieces which are distinct from one another, - the front segment and the rear segment are connected by at least one upper arch, ∘ extends above the front segment and the rear segment, providing a recess for receiving the foot, ∘ is adapted to keep the front segment and the rear segment in an inactive position,
A conveyor belt drivable around a curve by frictionally grasping outer side surfaces of links of the conveyor belt, the conveyor belt including spaced apart elongated rods (120a, 120b, 220, 320, 420, 520) joined together by interlocking links (122a, 122b, 422, 522a, 522b, 622a, 622b), the conveyor belt comprising: a first link (122a, 522a) having a first inner leg and a first outer leg; a second link having a second inner leg and a second outer leg; the first link (122a, 522a) and the second link spaced apart and positioned so that the first inner leg faces the second inner leg; the first outer leg having a first inner surface that faces the first inner leg and a first outer surface opposite to the first inner surface; the second outer leg having a second inner surface that faces the second inner leg and a second outer surface opposite to the second inner surface; the first outer leg having a first circular aperture extending entirely through the first outer leg; the second outer leg having a second circular aperture extending entirely through the second outer leg; a rod (120a, 220, 320, 420, 520) having a first free end and a second free end; the first free end disposed in the first circular aperture (142, 242, 342, 542); the second free end disposed in the second circular aperture; a first weld (125, 225, 325, 425) attaching the first free end to the first outer surface, wherein the first weld (125, 225, 325, 425) covers the first free end; wherein the second free end is attached to the second outer surface with a second weld (125, 225, 325, 425), wherein the second weld covers the second free end, characterized in that the rod (120a, 220, 320, 420, 520) has a uniform diameter from the first free end to the second free end. a first link (122a, 522a) having a first inner leg and a first outer leg; a second link having a second inner leg and a second outer leg; the first link (122a, 522a) and the second link spaced apart and positioned so that the first inner leg faces the second inner leg; the first outer leg having a first inner surface that faces the first inner leg and a first outer surface opposite to the first inner surface; the second outer leg having a second inner surface that faces the second inner leg and a second outer surface opposite to the second inner surface; the first outer leg having a first circular aperture extending entirely through the first outer leg; the second outer leg having a second circular aperture extending entirely through the second outer leg; a rod (120a, 220, 320, 420, 520) having a first free end and a second free end; the first free end disposed in the first circular aperture (142, 242, 342, 542); the second free end disposed in the second circular aperture; a first weld (125, 225, 325, 425) attaching the first free end to the first outer surface, wherein the first weld (125, 225, 325, 425) covers the first free end; wherein the second free end is attached to the second outer surface with a second weld (125, 225, 325, 425), wherein the second weld covers the second free end, characterized in that the rod (120a, 220, 320, 420, 520) has a uniform diameter from the first free end to the second free end.
An ABA block copolymer comprising: an A block containing a structural unit represented by a general formula below and a structural unit derived from a vinyl monomer with an acid group; and a B block containing a structural unit derived from a vinyl monomer with an aromatic ring group or an alicyclic alkyl group, the ABA block copolymer having an acid value of 30 to 250 mgKOH/g. wherein in the general formula R 1 is a hydrogen atom or a methyl group and R 2 is an alkyl group having 2 to 10 carbon atoms.
A prosthetic device comprising: a housing (100, 300) having a first end (108, 306) and a second end (106, 308); an intermediary piece (126, 326) having a third end (128, 328) and a fourth end (129, 329), the third end being connected to the second end of the housing; and a head (138, 144, 238, 244) attached to the first end of the housing, characterized in that the prosthetic device further comprises at least three screws (124, 324) projecting in a space between the intermediary piece and the housing, wherein the housing is adapted to pivot around the third end of the intermediary piece to position the head in an optimum position and the head is locked in the optimum position upon tightening of the screws. a housing (100, 300) having a first end (108, 306) and a second end (106, 308); an intermediary piece (126, 326) having a third end (128, 328) and a fourth end (129, 329), the third end being connected to the second end of the housing; and a head (138, 144, 238, 244) attached to the first end of the housing, characterized in that the prosthetic device further comprises at least three screws (124, 324) projecting in a space between the intermediary piece and the housing, wherein the housing is adapted to pivot around the third end of the intermediary piece to position the head in an optimum position and the head is locked in the optimum position upon tightening of the screws.
A method comprising: (a) defining a user interface of a provided electronic device, the user interface including: (i) an auxiliary interface for receiving input from a user and providing output to the user; and (ii) a primary access interface; (b) providing, using the auxiliary interface, a message to the user wherein the message is provided without requiring the user to be authenticated through the primary access interface; and (c) accepting input from the user through the auxiliary interface to access a service available from the provided electronic device, wherein access to the service is provided without requiring the user to be authenticated through the primary access interface, characterized in that, the method further comprises: prompting the user, using the auxiliary interface, to enter a command to activate the service; receiving an entered command from the user through the auxiliary interface to initiate the service, prompting the user to provide an input when a desired physical location is reached; obtaining global position data from the provided electronic device regarding the desired physical location; and storing the global position data for later recall by the provided electronic device. (a) defining a user interface of a provided electronic device, the user interface including: (i) an auxiliary interface for receiving input from a user and providing output to the user; and (ii) a primary access interface; (i) an auxiliary interface for receiving input from a user and providing output to the user; and (ii) a primary access interface; (b) providing, using the auxiliary interface, a message to the user wherein the message is provided without requiring the user to be authenticated through the primary access interface; and (c) accepting input from the user through the auxiliary interface to access a service available from the provided electronic device, wherein access to the service is provided without requiring the user to be authenticated through the primary access interface, prompting the user, using the auxiliary interface, to enter a command to activate the service; receiving an entered command from the user through the auxiliary interface to initiate the service, prompting the user to provide an input when a desired physical location is reached; obtaining global position data from the provided electronic device regarding the desired physical location; and storing the global position data for later recall by the provided electronic device.
A jigsaw in which a housing accommodates a motor, a cutting blade driven by the motor protrudes downward from a front part of the housing and moves in a reciprocating manner so as to cut a workpiece, a roller holder that is pivotally arranged under the housing and holds a roller that abuts on a rear part of the cutting blade and is arranged between a pair of side walls (23, 23) facing each other, and a dust collection passage is formed on the housing and has a dust collection port that opens behind the roller holder, the jigsaw characterized in that the roller holder supports a dust collection nozzle that has a vertical long opening (33, 34) formed on a front face and on a rear face thereof respectively, the opening on the rear face being connected to the dust collection port.
A method of operating a gas turbine engine of an aircraft to mitigate the risk of ice formation within the gas turbine engine, the method comprising controlling at least one operational parameter of the gas turbine engine such that the gas turbine engine operates in a safe zone, wherein it is determined that the gas turbine engine is operating within a safe zone based on at least a core pressure parameter relating to the pressure within the gas turbine engine and a core temperature parameter relating to the temperature within the gas turbine engine, characterised in that the safe zone is defined by the product of the core pressure parameter and core temperature parameter being above a safe threshold.
A method for making a chiral alkylated derivative of a nitrogen-containing heterocycle, comprising: incorporating into a medium with an optionally substituted α-substitutable-N- heterocycle at least an organometallic compound, a chiral diamine, a strained cyclic ether, and a Lewis acid, wherein said strained cyclic ether is incorporated before said Lewis acid is incorporated, wherein: said α-substitutable-N-heterocycle is one of aziridine, azetidine, pyrrolidine, piperidine, hexahydroazepine, azocane, imidazolidine, pyrazolidine, hexahydropyridazine, hexahydropyrimidine, piperazine, and mixtures thereof; said α-substitutable-N-heterocycle has an amino group that is protected with a protection group, wherein said protection group is at least one of an alkanoyl group, an alcoxycarbonyl group, an aroyl group, a phthaloyl group, an arylmethoxycarbonyl group, and a pivaloyl group; said organometallic compound is organolithium; said strained cyclic ether is oxirane, oxirane with at least one substituent, oxetane, or oxetane with at least one substituent; and said chiral diamine comprises at least one of (-)-sparteine, (+)-sparteine, and (+)-sparteine surrogate, or salt or stereoisomer thereof; said (-)-sparteine, (+)-sparteine, and (+)-sparteine surrogate have the structures: said α-substitutable-N-heterocycle is one of aziridine, azetidine, pyrrolidine, piperidine, hexahydroazepine, azocane, imidazolidine, pyrazolidine, hexahydropyridazine, hexahydropyrimidine, piperazine, and mixtures thereof; said α-substitutable-N-heterocycle has an amino group that is protected with a protection group, wherein said protection group is at least one of an alkanoyl group, an alcoxycarbonyl group, an aroyl group, a phthaloyl group, an arylmethoxycarbonyl group, and a pivaloyl group; said organometallic compound is organolithium; said strained cyclic ether is oxirane, oxirane with at least one substituent, oxetane, or oxetane with at least one substituent; and said chiral diamine comprises at least one of (-)-sparteine, (+)-sparteine, and (+)-sparteine surrogate, or salt or stereoisomer thereof; said (-)-sparteine, (+)-sparteine, and (+)-sparteine surrogate have the structures:
A system for placing an object to be processed in an accurate position on a manufacturing device, having at least a position determination system for determining a relative position of an object to be processed relative to a manufacturing device, and a positioning device for positioning the object to be processed on the manufacturing device, wherein the positioning device has a receiving device for receiving and delivering the object to be processed and a movable arm for moving the object to be processed out of a first position into a second position, wherein the position determination system has at least one position detection means which is designed for detecting a relative position of the receiving device relative to the position detection means, wherein the position detection means is designed to detect a relative position of the object to be processed relative to the position detection means, characterised in that the position detection means is further designed to detect a relative position of the manufacturing device relative to the position detection means.
A method of voltage level translation, the method comprising: translating, in a voltage level translator, an input signal in a first voltage domain to an output signal in a second voltage domain, in a normal mode wherein a first supply voltage of the first voltage domain is different from a second supply voltage of the second voltage domain; bypassing the voltage level translator and providing the input signal as the output signal in the first voltage domain based on a bypass signal, in a bypass mode, wherein the first supply voltage and the second supply voltage are substantially the same, this being performed by means of a bypass circuit arranged for selecting in the bypass mode the input signal as the output signal and for selecting in the normal mode the signal at an output node of the voltage level translator as the output signal based on the bypass signal; and powering-down the voltage level translator in the bypass mode based on the bypass signal but not in the normal mode and, in the bypass mode and based on the bypass signal, either connecting the output node of the voltage level translator to the second supply voltage or connecting the output node of the voltage level translator to ground, to prevent the output node from floating in the bypass mode. translating, in a voltage level translator, an input signal in a first voltage domain to an output signal in a second voltage domain, in a normal mode wherein a first supply voltage of the first voltage domain is different from a second supply voltage of the second voltage domain; bypassing the voltage level translator and providing the input signal as the output signal in the first voltage domain based on a bypass signal, in a bypass mode, wherein the first supply voltage and the second supply voltage are substantially the same, this being performed by means of a bypass circuit arranged for selecting in the bypass mode the input signal as the output signal and for selecting in the normal mode the signal at an output node of the voltage level translator as the output signal based on the bypass signal; and powering-down the voltage level translator in the bypass mode based on the bypass signal but not in the normal mode and, in the bypass mode and based on the bypass signal, either connecting the output node of the voltage level translator to the second supply voltage or connecting the output node of the voltage level translator to ground, to prevent the output node from floating in the bypass mode.
A method of producing a polyvinyl acetal resin, wherein a solution or a suspension containing a polyvinyl alcohol resin and a carbonyl compound is pressurized to 0.5 MPa or more in the presence of a solid catalyst; wherein the solid catalyst is acid silica, acid alumina, acid zirconia, zeolite, an acid ion-exchange resin in which a carboxyl group or a sulfonic acid group is introduced, or an acid resin in which a carboxyl group is introduced; wherein the hydrogen ion concentration of the solution or the suspension containing a polyvinyl alcohol resin and a carbonyl compound is 10 -6 to 10 -3 M.
A charging member which comprises a support, a conductive elastic layer formed on the support and a surface layer formed on the conductive elastic layer, wherein the surface layer contains a polysiloxane having at least one structure selected from the group consisting of a structure represented by the following formula (1a1), a structure represented by the following formula (1a2), a structure represented by the following formula (1b1) and a structure represented by the following formula (1b2). wherein X represents one functional group selected from the group consisting of -O-, -NR 12 - and -COO-; R 11 represents a hydrocarbon group having 5 or more and 30 or less carbon atoms; R 12 represents a hydrogen atom or a hydrocarbon group; and Z 21 represents a divalent organic group.
A reference signal sending method, performed by a transmitter and comprising: determining a time-frequency resource pattern of a target reference signal used for interference measurement, wherein the time-frequency resource pattern is used to indicate a time domain location and a frequency domain location of the target reference signal; and sending, according to the time-frequency resource pattern, the target reference signal by using zero power; wherein the method is characterized by further comprising: performing, by using a compensation factor β, power compensation on a symbol on which the target reference signal is configured, wherein the compensation factor is β = sum _ RE sum _ RE − sum _ IMRS; and sum_RE represents a total quantity of resource elements REs in a resource allocated to the symbol, and sum_IMRS represents a quantity of REs occupied by the target reference signal on the symbol. determining a time-frequency resource pattern of a target reference signal used for interference measurement, wherein the time-frequency resource pattern is used to indicate a time domain location and a frequency domain location of the target reference signal; and sending, according to the time-frequency resource pattern, the target reference signal by using zero power; wherein the method is characterized by further comprising: performing, by using a compensation factor β, power compensation on a symbol on which the target reference signal is configured, wherein the compensation factor is β = sum _ RE sum _ RE − sum _ IMRS; and sum_RE represents a total quantity of resource elements REs in a resource allocated to the symbol, and sum_IMRS represents a quantity of REs occupied by the target reference signal on the symbol. performing, by using a compensation factor β, power compensation on a symbol on which the target reference signal is configured, wherein the compensation factor is β = sum _ RE sum _ RE − sum _ IMRS; and sum_RE represents a total quantity of resource elements REs in a resource allocated to the symbol, and sum_IMRS represents a quantity of REs occupied by the target reference signal on the symbol.