mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting or identifying infection with more than one of Plasmodium falciparum, Plasmodium vivax, Plasmodium malariae, and Plasmodium ovale in a specimen; the method comprising the following steps (a) to (c): (a) extracting DNA from the specimen; (b) amplifying a particular region of a Plasmodium 18S rRNA gene sequence by reacting the DNA extracted in the step (a) in a reaction mixture containing a strand displacement DNA polymerase and a sequence-specific primer set; and (c) detecting or identifying the presence or absence of an amplified product of more than one of Plasmodium falciparum, Plasmodium vivax, Plasmodium malariae, and Plasmodium ovale, amplified in the step (b); the sequence-specific primer set being more than one of: a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 7 to 12 for amplifying a particular region of a Plasmodium falciparum 18S rRNA gene sequence, a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 13 to 18, SEQ ID NOs: 31 to 36, or SEQ ID NOs: 37 to 42 for amplifying a particular region of a Plasmodium vivax 18S rRNA gene sequence, a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 19 to 24 for amplifying a particular region of a Plasmodium malariae 18S rRNA gene sequence, and a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 25 to 30 for amplifying a particular region of a Plasmodium ovale 18S rRNA gene sequence. (a) extracting DNA from the specimen; (b) amplifying a particular region of a Plasmodium 18S rRNA gene sequence by reacting the DNA extracted in the step (a) in a reaction mixture containing a strand displacement DNA polymerase and a sequence-specific primer set; and (c) detecting or identifying the presence or absence of an amplified product of more than one of Plasmodium falciparum, Plasmodium vivax, Plasmodium malariae, and Plasmodium ovale, amplified in the step (b); a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 7 to 12 for amplifying a particular region of a Plasmodium falciparum 18S rRNA gene sequence, a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 13 to 18, SEQ ID NOs: 31 to 36, or SEQ ID NOs: 37 to 42 for amplifying a particular region of a Plasmodium vivax 18S rRNA gene sequence, a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 19 to 24 for amplifying a particular region of a Plasmodium malariae 18S rRNA gene sequence, and a primer set comprising an oligonucleotide set containing nucleic acid sequences represented by SEQ ID NOs: 25 to 30 for amplifying a particular region of a Plasmodium ovale 18S rRNA gene sequence.
A voltage probe for use with a test and measurement instrument, comprising: an input configured to receive a signal from a device under test; a calibration unit configured to apply a calibration or compensation signal internal to the voltage probe; and an output to output either the signal from the device under test to the test and measurement instrument or output the calibration or compensation signal to the test and measurement instrument; and an optical voltage sensor; the voltage probe being characterised in that the input configured to receive a signal from a device under test is connected to the signal input electrodes of the optical voltage sensor and the calibration unit is connected to the control electrodes of the optical voltage sensor. an input configured to receive a signal from a device under test; a calibration unit configured to apply a calibration or compensation signal internal to the voltage probe; and an output to output either the signal from the device under test to the test and measurement instrument or output the calibration or compensation signal to the test and measurement instrument; and an optical voltage sensor;
A memory management system (1, 2, 270) comprising: a first virtual machine (10, 110, 271); a second virtual machine (20, 120, 272); and a hypervisor (30, 130, 273) configured to: manage a region to which the first virtual machine (10, 110, 271) and the second virtual machine (20, 120, 272) access in a memory (60, 220), control the first virtual machine (10, 110, 271) to access a first region and a shared region in the memory (60, 220) and not to access a second region different from the first region in the memory (60, 220), control the second virtual machine (20, 120, 272) to access the shared region and the second region in the memory (60, 220) and not to access the first region in the memory (60, 220), and in response to a request of the first virtual machine (10, 110, 271), store an in-memory data isolation, IMDI, table that indicates an IMDI region that a task of the first virtual machine (10, 110, 271) accesses and a task of the second virtual machine (20, 120, 272) does not access, in the memory (60, 220). a first virtual machine (10, 110, 271); a second virtual machine (20, 120, 272); and a hypervisor (30, 130, 273) configured to: manage a region to which the first virtual machine (10, 110, 271) and the second virtual machine (20, 120, 272) access in a memory (60, 220), control the first virtual machine (10, 110, 271) to access a first region and a shared region in the memory (60, 220) and not to access a second region different from the first region in the memory (60, 220), control the second virtual machine (20, 120, 272) to access the shared region and the second region in the memory (60, 220) and not to access the first region in the memory (60, 220), and in response to a request of the first virtual machine (10, 110, 271), store an in-memory data isolation, IMDI, table that indicates an IMDI region that a task of the first virtual machine (10, 110, 271) accesses and a task of the second virtual machine (20, 120, 272) does not access, in the memory (60, 220). manage a region to which the first virtual machine (10, 110, 271) and the second virtual machine (20, 120, 272) access in a memory (60, 220), control the first virtual machine (10, 110, 271) to access a first region and a shared region in the memory (60, 220) and not to access a second region different from the first region in the memory (60, 220), control the second virtual machine (20, 120, 272) to access the shared region and the second region in the memory (60, 220) and not to access the first region in the memory (60, 220), and in response to a request of the first virtual machine (10, 110, 271), store an in-memory data isolation, IMDI, table that indicates an IMDI region that a task of the first virtual machine (10, 110, 271) accesses and a task of the second virtual machine (20, 120, 272) does not access, in the memory (60, 220).
An industrial welding robot comprising: an arm a wrist portion provided at an end of the arm, the wrist portion including; a body, attached to the end of the arm and adapted to rotate around a first axis (R-axis) extending in a direction of length of the arm; a swinging element, attached to an end of the body and adapted to swing around a second axis (B-axis) perpendicular to the first axis (R-axis); and a rotating element attached to an end of the swinging element and adapted to rotate a third axis (T-axis); an ingress opening, which is opened in a side surface of the arm; and a passage opening, from which a conduit cable for feeding a welding wire through said conduit cable to an end effector attached to the rotating element is drawn out, is formed in the body at a place where the body intersects the first axis (R-axis), so that the opening is centered around the first axis (R-axis), wherein the conduit cable is drawn into an inside of the arm from the ingress opening and extended from the inside of the arm to the body along the first axis (R-axis), and characterized in that the conduit cable is disposed to extend from the passage opening toward the swinging element along the first axis (R-axis), so that the central axis of the conduit cable coincides with the first axis (R-axis). an arm a wrist portion provided at an end of the arm, the wrist portion including; a body, attached to the end of the arm and adapted to rotate around a first axis (R-axis) extending in a direction of length of the arm; a swinging element, attached to an end of the body and adapted to swing around a second axis (B-axis) perpendicular to the first axis (R-axis); and a rotating element attached to an end of the swinging element and adapted to rotate a third axis (T-axis); an ingress opening, which is opened in a side surface of the arm; and a passage opening, from which a conduit cable for feeding a welding wire through said conduit cable to an end effector attached to the rotating element is drawn out, is formed in the body at a place where the body intersects the first axis (R-axis), so that the opening is centered around the first axis (R-axis), wherein the conduit cable is drawn into an inside of the arm from the ingress opening and extended from the inside of the arm to the body along the first axis (R-axis), and characterized in that the conduit cable is disposed to extend from the passage opening toward the swinging element along the first axis (R-axis), so that the central axis of the conduit cable coincides with the first axis (R-axis).
A microtome apparatus (20, 20') comprising - a microtome blade configured to oscillate in a direction transverse to a direction of advancing a cut; a rotating actuator; - an eccentric driven by the actuator; - a first flexure (F1, F1') connecting a blade holder assembly to a mounting platform, the first flexure (F1,F1') configured to support and guide the blade and to be compliant in the transverse direction while being stiff in the cut direction; - a second flexure (F2, F2') operatively engaged at one end portion thereof with the first flexure (F1, F1') and configured for being stiff in the transverse direction while being compliant in the cut direction; the second flexure (F2, F2') being rotatably engaged at another end portion thereof with the eccentric, wherein operation of the actuator serves to oscillate the blade in the transverse direction while effectively isolating non-transverse motion from the blade; and the second flexure (F2, F2') being configured to move independently of any stationary objects during said oscillation and in a substantially frictionless manner during said oscillation, and wherein the second flexure (F2, F2') is monolithic and comprises a plurality of flexible beams spaced from one another in the cut direction. - a microtome blade configured to oscillate in a direction transverse to a direction of advancing a cut; a rotating actuator; - an eccentric driven by the actuator; - a first flexure (F1, F1') connecting a blade holder assembly to a mounting platform, the first flexure (F1,F1') configured to support and guide the blade and to be compliant in the transverse direction while being stiff in the cut direction; - a second flexure (F2, F2') operatively engaged at one end portion thereof with the first flexure (F1, F1') and configured for being stiff in the transverse direction while being compliant in the cut direction; the second flexure (F2, F2') being rotatably engaged at another end portion thereof with the eccentric, wherein operation of the actuator serves to oscillate the blade in the transverse direction while effectively isolating non-transverse motion from the blade; and the second flexure (F2, F2') being configured to move independently of any stationary objects during said oscillation and in a substantially frictionless manner during said oscillation, and wherein the second flexure (F2, F2') is monolithic and comprises a plurality of flexible beams spaced from one another in the cut direction.
A method for antenna selection applied to a transceiver having a set of antennas consisting of a first subset of antennas and a second subset of antennas in a wireless communication network, wherein the transceiver is configured to transmit a frequency-hopped sounding reference signal, SRS, over one of a plurality of sub-bands from one of the subsets of antennas at a time, the method comprising: transmitting the frequency-hopped SRS over the plurality of sub-bands from the subsets of antennas alternately and periodically switching, if the number of sub-bands is an integer multiplier of the number of the subsets of antennas, an order of transmission to transmit two SRSs from the same subset of antennas; receiving, in response to the transmitting, information indicative of an optimal subset of antennas. transmitting the frequency-hopped SRS over the plurality of sub-bands from the subsets of antennas alternately and periodically switching, if the number of sub-bands is an integer multiplier of the number of the subsets of antennas, an order of transmission to transmit two SRSs from the same subset of antennas; receiving, in response to the transmitting, information indicative of an optimal subset of antennas.
A computer-implemented method comprising: storing a previous blockchain transaction in a blockchain maintained by a blockchain network, the previous blockchain transaction including a locking script representing an instance of a parent execution thread; creating and/or validating a first blockchain transaction that includes a plurality of locking scripts each representing an instance of a child execution thread which is forked from the parent execution thread in response to a corresponding first construct or operation included in the locking script of the previous blockchain transaction; and communicating the first blockchain transaction on the blockchain network for storage in the blockchain wherein: the first blockchain transaction points to the locking script of the previous blockchain transaction which represents the parent execution thread. storing a previous blockchain transaction in a blockchain maintained by a blockchain network, the previous blockchain transaction including a locking script representing an instance of a parent execution thread; creating and/or validating a first blockchain transaction that includes a plurality of locking scripts each representing an instance of a child execution thread which is forked from the parent execution thread in response to a corresponding first construct or operation included in the locking script of the previous blockchain transaction; and communicating the first blockchain transaction on the blockchain network for storage in the blockchain wherein: the first blockchain transaction points to the locking script of the previous blockchain transaction which represents the parent execution thread.
A lithographic printing plate precursor comprising: a hydrophilized aluminum support; and a water-soluble or water-dispersible negative type image recording layer on the aluminum support, wherein an arithmetic average height Sa of a surface of an outermost layer on a side opposite to a side where the image recording layer is provided is in a range of 0.5 μm to 20 μm, and wherein the image recording layer comprises an infrared absorbing agent and a thermoplastic polymer particle. a hydrophilized aluminum support; and a water-soluble or water-dispersible negative type image recording layer on the aluminum support, wherein an arithmetic average height Sa of a surface of an outermost layer on a side opposite to a side where the image recording layer is provided is in a range of 0.5 μm to 20 μm, and wherein the image recording layer comprises an infrared absorbing agent and a thermoplastic polymer particle.
Method for operating a converter arrangement having a modular multilevel converter which comprises at least one converter arm having a series connection of two-pole switching modules (SM1, SM2), wherein each of the switching modules (SM1, SM2) has a plurality of semiconductor switches (H1-4, S1,2) and an energy store, wherein at least some of the switching modules are switching modules of a first type and at least some other of the switching modules are switching modules of a second type, in which method an arm voltage is generated across the at least one converter arm, which arm voltage brings about an arm current through the converter arm, wherein a converter circulating current is generated through the multilevel converter in order to generate at least one arm-current zero crossing, characterized in that the converter circulating current has a rectangular or trapezoidal current pulse.
A system comprising: an induction generator including a rotor and a stator; a converter electrically coupled to the induction generator and configured to regulate a flow of electrical power between the induction generator and an electrical grid; and a controller electrically coupled to the induction generator and the converter, characterized in that the controller is configured to operate the converter selectively in an electrical power generation mode and a diagnostic mode, and wherein the diagnostic mode of the controller is configured to instruct the converter to send an input signal to the rotor, receive an output signal from the rotor and the stator, and identify winding faults within the rotor, the stator, or a combination thereof, based on the output signals. an induction generator including a rotor and a stator; a converter electrically coupled to the induction generator and configured to regulate a flow of electrical power between the induction generator and an electrical grid; and a controller electrically coupled to the induction generator and the converter, characterized in that the controller is configured to operate the converter selectively in an electrical power generation mode and a diagnostic mode, and wherein the diagnostic mode of the controller is configured to instruct the converter to send an input signal to the rotor, receive an output signal from the rotor and the stator, and identify winding faults within the rotor, the stator, or a combination thereof, based on the output signals.
A method for manufacturing a solid propellant, the method characterised by: forming a tool of layers of a first material wherein cuts in the layers form a first interior chamber in the tool; using the tool to mold a second material in the first interior chamber; removing the molded second material from the tool; using the molded second material to mold an interior chamber in a rocket propellant grain; removing the molded second material from the rocket propellant grain; and the removing the molded second material from the rocket propellant grain stretches the second material. forming a tool of layers of a first material wherein cuts in the layers form a first interior chamber in the tool; using the tool to mold a second material in the first interior chamber; removing the molded second material from the tool; using the molded second material to mold an interior chamber in a rocket propellant grain; removing the molded second material from the rocket propellant grain; and the removing the molded second material from the rocket propellant grain stretches the second material.
Cable, comprising an inner cable body, in which at least one conductor strand of an optical and/or electrical conductor runs in the longitudinal direction of the cable, a cable sheath, enclosing the inner cable body and lying between an outer surface of the cable and the inner cable body, and at least one information carrier unit, disposed within the outer surface of the cable, further comprising a sensor, the at least one information carrier unit being readable by electromagnetic field coupling and the at least one information carrier unit picking up at least one measured value of the sensor associated with it, and the measured value being readable by a read device, characterized in that the sensor is a sensor which reacts irreversibly to the state variable to be picked up.
A switching device for an electric circuit, comprising: - at least one contact movable between a closed position in which it is coupled to a corresponding fixed contact and an open position in which it is spaced away from said corresponding fixed contact; - a main shaft suitable for rotating about an axis and operatively connected to said at least one movable contact so as to cause with its rotation the movement of said at least one movable contact between the open and closed positions; - at least one locking device which has one or more parts coupled to and which is configured for directly acting on said main rotating shaft and locking said at least one movable contact in the open position, said one or more parts comprising a first movable element coupled to said main rotating shaft so as to be movable between a first position corresponding to the closed position of said at least one movable contact, and a second position corresponding to the open position of said at least one movable contact, said locking device comprising blocking means configured for operatively interacting with said first movable element in the second position, so as to block the first movable element in said second position; characterized in that the ends of said main rotating shaft are operatively coupled to the flanks of said switching device, wherein at least one end of the main rotating shaft is accessible from the outside of the switching device through an opening defined in the corresponding flank, and wherein said first movable element is coupled to said accessible end. - at least one contact movable between a closed position in which it is coupled to a corresponding fixed contact and an open position in which it is spaced away from said corresponding fixed contact; - a main shaft suitable for rotating about an axis and operatively connected to said at least one movable contact so as to cause with its rotation the movement of said at least one movable contact between the open and closed positions; - at least one locking device which has one or more parts coupled to and which is configured for directly acting on said main rotating shaft and locking said at least one movable contact in the open position, said one or more parts comprising a first movable element coupled to said main rotating shaft so as to be movable between a first position corresponding to the closed position of said at least one movable contact, and a second position corresponding to the open position of said at least one movable contact, said locking device comprising blocking means configured for operatively interacting with said first movable element in the second position, so as to block the first movable element in said second position;
A garage with four outer walls (11, 12, 13, 14) arranged substantially at right angles to one another, wherein a garage door opening is arranged in a first outer wall and wherein in the first outer wall and/or in a third outer wall opposite the first outer wall and/or in an outer wall (12, 14) adjacent to the first outer wall at least one opening region (21, 21a, 21b) is provided, which is or are coupled to at least one closing element (22a, 22b, 23) and is/are closable by said closing element(s), wherein the at least one closing element (22a, 22b, 23) is to be opened from the outside or by remote control, characterized in that in an interior space of the garage a shelf is arranged, wherein the shelf comprises at least one shelf side which is oriented towards an inner side of the garage, wherein the shelf side facing the inner side at least partially faces or overlaps the opening region (21, 21a, 21b) and wherein the shelf can be accessed from the outside via this opening region (21, 21a, 21b).