mhurhangee/ep-ind-claims huggingface dataset:
A damper pin for damping adjacent turbine blades coupled to a rotor shaft, the damper pin comprising: an elongated body having a center portion disposed between a first end portion and a second end portion, the first end portion, center portion and second end portion defining a generally arcuate top portion of the elongated body configured to contact with a groove defined between the adjacent turbine blades, wherein the elongated body includes a first side portion laterally opposed to a second side portion; wherein the elongated body defines a plurality of laterally extending slots axially spaced along the center portion, the plurality of slots comprising a first set of slots and a second set of slots, each slot of the first set of slots extending from the first side portion, through a centerline of the elongated body and into the second side portion, each slot of the first set of slots terminating at a point or position that is past the centerline, each slot of the second set of slots extending from the second side portion through the centerline, and into the first side portion, each slot of the second set of slots terminating at a point or position that is past the centerline, characterized in that each slot of the first set of slots does not extend entirely through the second side portion, and that each slot of the second set of slots does not extend entirely through the first side portion. an elongated body having a center portion disposed between a first end portion and a second end portion, the first end portion, center portion and second end portion defining a generally arcuate top portion of the elongated body configured to contact with a groove defined between the adjacent turbine blades, wherein the elongated body includes a first side portion laterally opposed to a second side portion; wherein the elongated body defines a plurality of laterally extending slots axially spaced along the center portion, the plurality of slots comprising a first set of slots and a second set of slots, each slot of the first set of slots extending from the first side portion, through a centerline of the elongated body and into the second side portion, each slot of the first set of slots terminating at a point or position that is past the centerline, each slot of the second set of slots extending from the second side portion through the centerline, and into the first side portion, each slot of the second set of slots terminating at a point or position that is past the centerline, characterized in that each slot of the first set of slots does not extend entirely through the second side portion, and that each slot of the second set of slots does not extend entirely through the first side portion.
A composition for detecting mutations of 2019 novel coronavirus, comprising: a first nucleic acid composition: 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and a second nucleic acid composition: 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); wherein each nucleic acid composition further comprises: 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8). a first nucleic acid composition: 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and 8782 C-type forward primer: 5'-GCTGATTTTGACACATGGTTCATC-3' (SEQ ID NO: 1); and 28144 T-type forward primer: 5'-ATCGGTAATTATACAGTTTCCAGATT-3' (SEQ ID NO: 2); and a second nucleic acid composition: 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); 8782 T-type forward primer: 5'-GCTGATTTTGACACATGGTATCGT-3' (SEQ ID NO: 3); and 28144 C-type forward primer: 5'-ATCGGTAATTATACAGTTTCCTTTGC-3' (SEQ ID NO: 4); wherein each nucleic acid composition further comprises: 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8). 8782 reverse primer: 5'-CCATTAGTTGTGCGTAATATCGT-3' (SEQ ID NO: 5); 8782 probe: 5'-CTTGCCCATTGATTGCTGCAGTCATAA-3' (SEQ ID NO: 6); 28144 reverse primer: 5'-CAACACGAACGTCATGATACTCTA-3' (SEQ ID NO: 7); and 28144 probe: 5'-ATTGCCAGGAACCTAAATTGGGTAGT-3' (SEQ ID NO: 8).
A method for transferring information over wireless communications, comprising: storing data on a first and/or a second Near Field Communication, NFC,-enabled device; and in response to the second device coming into a predefined distance of the first device, transferring data items that are new or changed on the first device as compared to the second device, and new or changed on the second device as compared to the first device, wherein said data items are formatted in RSS format and embedded in an NFC Data Exchange Format message, and transferred bi-directionally between the first and the second device. storing data on a first and/or a second Near Field Communication, NFC,-enabled device; and in response to the second device coming into a predefined distance of the first device, transferring data items that are new or changed on the first device as compared to the second device, and new or changed on the second device as compared to the first device, wherein said data items are formatted in RSS format and embedded in an NFC Data Exchange Format message, and transferred bi-directionally between the first and the second device.
A method, comprising: receiving, at a server (104, 400) and from an electronic device (102, 300), information for determining remaining battery life including at least one of an unloaded battery voltage, a loaded battery voltage at a particular current value, or a temperature at the electronic device (102, 300); determining, at the server (104, 400) and based on at least one of the unloaded battery voltage, the loaded battery voltage at the particular current value, or the temperature at the electronic device (102, 300), a remaining battery life of the electronic device (102, 300), wherein the electronic device is powered by a battery and associated with a power management profile for managing power consumption at the electronic device (102, 300), and wherein the power management profile comprises a frequency for polling measurements from one or more sensors of the electronic device (102, 300); and based on the determined remaining battery life, provisioning, at the server (104, 400), an updated power management profile for the electronic device (102, 300). receiving, at a server (104, 400) and from an electronic device (102, 300), information for determining remaining battery life including at least one of an unloaded battery voltage, a loaded battery voltage at a particular current value, or a temperature at the electronic device (102, 300); determining, at the server (104, 400) and based on at least one of the unloaded battery voltage, the loaded battery voltage at the particular current value, or the temperature at the electronic device (102, 300), a remaining battery life of the electronic device (102, 300), wherein the electronic device is powered by a battery and associated with a power management profile for managing power consumption at the electronic device (102, 300), and wherein the power management profile comprises a frequency for polling measurements from one or more sensors of the electronic device (102, 300); and based on the determined remaining battery life, provisioning, at the server (104, 400), an updated power management profile for the electronic device (102, 300).
A rocket-engine turbopump, comprising: a main shaft rotatably supported; a pump section including an impeller attached to one end of the main shaft; and a turbine section including: a disk attached to the other end of the main shaft, rotor blades provided on an outer periphery of the disk, and nozzles provided inclined to an entrance plane of a blade cascade constituted of the rotor blades, characterized by the nozzles having axisymmetric cross sections and being arranged in at least two rows along a circumferential direction of the main shaft in a plane orthogonal to the main shaft, wherein outlets of the nozzles in one of the two rows and outlets of the nozzles in the other of the two rows are alternately positioned around the main shaft so that a phase shift between ejection areas of the nozzles in the one of the two rows and ejection areas of the nozzles in the other of the two rows in the entrance plane is within a range of an angle from 1/4 to 3/4 of a circumferential angle defined by each ejection area with respect to a center of the main shaft. a main shaft rotatably supported; a pump section including an impeller attached to one end of the main shaft; and a turbine section including: a disk attached to the other end of the main shaft, rotor blades provided on an outer periphery of the disk, and nozzles provided inclined to an entrance plane of a blade cascade constituted of the rotor blades, characterized by the nozzles having axisymmetric cross sections and being arranged in at least two rows along a circumferential direction of the main shaft in a plane orthogonal to the main shaft, wherein outlets of the nozzles in one of the two rows and outlets of the nozzles in the other of the two rows are alternately positioned around the main shaft so that a phase shift between ejection areas of the nozzles in the one of the two rows and ejection areas of the nozzles in the other of the two rows in the entrance plane is within a range of an angle from 1/4 to 3/4 of a circumferential angle defined by each ejection area with respect to a center of the main shaft. a disk attached to the other end of the main shaft, rotor blades provided on an outer periphery of the disk, and nozzles provided inclined to an entrance plane of a blade cascade constituted of the rotor blades, characterized by the nozzles having axisymmetric cross sections and being arranged in at least two rows along a circumferential direction of the main shaft in a plane orthogonal to the main shaft, wherein outlets of the nozzles in one of the two rows and outlets of the nozzles in the other of the two rows are alternately positioned around the main shaft so that a phase shift between ejection areas of the nozzles in the one of the two rows and ejection areas of the nozzles in the other of the two rows in the entrance plane is within a range of an angle from 1/4 to 3/4 of a circumferential angle defined by each ejection area with respect to a center of the main shaft.
A door of a drum-type washing machine, comprising: a door frame hingably provided to a front side of the drum-type washing machine; and a door glass provided to a central hole opened through the door frame, characterized in that a mounting recess is formed on a front surface of the door frame and a hairline sheet (100,110) on an outer surface of which a multiple ring-shaped hairline portion is formed is mounted on the mounting recess, such that the hairline sheet (100,110) is fitted into the mounting recess. a door frame hingably provided to a front side of the drum-type washing machine; and a door glass provided to a central hole opened through the door frame, characterized in that a mounting recess is formed on a front surface of the door frame and a hairline sheet (100,110) on an outer surface of which a multiple ring-shaped hairline portion is formed is mounted on the mounting recess, such that the hairline sheet (100,110) is fitted into the mounting recess.
A method for compressing sampled values of audio data having a dynamic range, the method comprising: identifying a fixed mapping of a lower range of the sampled values of the audio data to a subset of quanta in a set of quanta having a bit depth less than a bit depth of the sampled values wherein the subset of quanta comprises a fixed number of quanta and wherein the fixed mapping comprises a one-to-one mapping of the fixed number of quanta to a same number of the sampled values; identifying an upper range of the sampled values of the audio data remaining after the fixed mapping of the lower range of the sampled values, wherein identifying the upper range comprises: identifying a maximum value of the lower range and dividing the dynamic range at the identified maximum value into the lower range and the upper range; identifying an adaptive mapping of the upper range of the sampled values to a remaining subset of quanta in the set of quanta, wherein the remaining subset of quanta comprises a remaining number of quanta and wherein the adaptive mapping comprises a many-to-one mapping of a remainder of the sampled values to the remaining number of quanta; encoding the lower range of the sampled values based on the fixed mapping; and encoding the upper range of the sampled values based on the adaptive mapping. identifying a fixed mapping of a lower range of the sampled values of the audio data to a subset of quanta in a set of quanta having a bit depth less than a bit depth of the sampled values wherein the subset of quanta comprises a fixed number of quanta and wherein the fixed mapping comprises a one-to-one mapping of the fixed number of quanta to a same number of the sampled values; identifying an upper range of the sampled values of the audio data remaining after the fixed mapping of the lower range of the sampled values, wherein identifying the upper range comprises: identifying a maximum value of the lower range and dividing the dynamic range at the identified maximum value into the lower range and the upper range; identifying an adaptive mapping of the upper range of the sampled values to a remaining subset of quanta in the set of quanta, wherein the remaining subset of quanta comprises a remaining number of quanta and wherein the adaptive mapping comprises a many-to-one mapping of a remainder of the sampled values to the remaining number of quanta; encoding the lower range of the sampled values based on the fixed mapping; and encoding the upper range of the sampled values based on the adaptive mapping.
MEMS device comprising: a package for providing an inner volume, a MEMS microphone arranged in the inner volume, a sound port through the package to the inner volume, and a passive acoustic attenuation filter acoustically coupled to the sound port, wherein the passive acoustic attenuation filter comprises a tube element, which branches off from the sound port, and wherein the tube element is implemented as a bypass tube having a tube inlet and a tube outlet, which are acoustically coupled to the sound port, wherein the tube inlet is arranged in the sound port acoustically upstream to the tube outlet, with respect to a sound traveling direction in to the package. a package for providing an inner volume, a MEMS microphone arranged in the inner volume, a sound port through the package to the inner volume, and a passive acoustic attenuation filter acoustically coupled to the sound port, wherein the passive acoustic attenuation filter comprises a tube element, which branches off from the sound port, and wherein the tube element is implemented as a bypass tube having a tube inlet and a tube outlet, which are acoustically coupled to the sound port, wherein the tube inlet is arranged in the sound port acoustically upstream to the tube outlet, with respect to a sound traveling direction in to the package.
A modified Trass having an active surface according BET of ≥ about 60 m 2 /g and being obtainable by a method comprising the steps of: (a) contacting Trass with a water/surfactant mixture and/or acids for dissolving away components in the Trass; and (b) removing the dissolved components from the Trass. (a) contacting Trass with a water/surfactant mixture and/or acids for dissolving away components in the Trass; and (b) removing the dissolved components from the Trass.
A slave device control method of a system comprising a master device and slave devices sorted into a plurality of groups, the method comprising: generating, by the master device, a control message comprising group start data, group end data, and output data to be transmitted to the slave devices and transmitting the control message to a specific group among the plurality of groups; transmitting the control message to a next group, by a slave device belonging to the specific group; transmitting the control message to the next group and then extracting group information corresponding to the slave device from the control message, by the slave device belonging to the specific group; and processing the control message according to the group information, by the slave device belonging to the specific group. generating, by the master device, a control message comprising group start data, group end data, and output data to be transmitted to the slave devices and transmitting the control message to a specific group among the plurality of groups; transmitting the control message to a next group, by a slave device belonging to the specific group; transmitting the control message to the next group and then extracting group information corresponding to the slave device from the control message, by the slave device belonging to the specific group; and processing the control message according to the group information, by the slave device belonging to the specific group.
A system for laser shock peening, comprising: a controller; a laser positioned to direct a laser pulse at a first side of a work piece; a coupler on a second side of the work piece; and a Doppler shift detector positioned to measure a velocity of said coupler; characterised by: a plurality of transducers positioned to receive a reflection of energy waves, wherein each of said plurality of transducers transmits a timing signal that is used by the controller to triangulate the exact location of the laser pulse on the first side of the work piece. a controller; a laser positioned to direct a laser pulse at a first side of a work piece; a coupler on a second side of the work piece; and a Doppler shift detector positioned to measure a velocity of said coupler; characterised by: a plurality of transducers positioned to receive a reflection of energy waves, wherein each of said plurality of transducers transmits a timing signal that is used by the controller to triangulate the exact location of the laser pulse on the first side of the work piece. a plurality of transducers positioned to receive a reflection of energy waves, wherein each of said plurality of transducers transmits a timing signal that is used by the controller to triangulate the exact location of the laser pulse on the first side of the work piece.
DEVICE ADAPTED TO THE SEPARATION OF SHAVINGS CONTAINED IN A CUTTING FLUID USED IN MACHINE TOOLS, comprising a first suction stage, consisting of a turret with an inlet, into which a mixture of air and cutting fluid containing metal shavings to be treated can converge, a pump acting on said turret, which pump is adapted to suck up said mixture, creating a depression inside said turret, within the aforesaid turret a plurality of inclined plates being present, arranged above the point of inlet of the mixture into the turret, which, in use, are flooded by said mixture, being able to intercept it and separating from the air the cutting fluid mixed with shavings that falls onto the bottom of the turret, where there is a rotary valve, which has a plurality of radial partitions, into which, in use, the mixture of cutting fluid and shavings enters, which mixture is made to fall into an underlying device for the complete separation of said two elements.
A touch controller (44, 97) configured to process signals from a projected capacitance touch panel, the touch panel comprising a layer of piezoelectric material disposed between a plurality of first electrodes and at least one second electrode, the touch controller configured, in response to receiving input signals from a given first electrode, to generate a pressure signal (15a, 15b, 94) indicative of a pressure applied to the touch panel proximate to the given first electrode and a capacitance signal indicative of a capacitance of the given first electrode, the touch controller comprising: an amplifier (52, 100) configured to generate an amplified signal (14a, 14b, 88) based on the input signals; and characterised by an analog-to-digital converter (50a, 50b, 89) configured to be synchronised with the capacitance signal, and to generate the pressure signal by sampling the amplified signal at times corresponding to the amplitude of the capacitance signal being substantially equal to a ground, common mode or minimum value. an amplifier (52, 100) configured to generate an amplified signal (14a, 14b, 88) based on the input signals; and characterised by an analog-to-digital converter (50a, 50b, 89) configured to be synchronised with the capacitance signal, and to generate the pressure signal by sampling the amplified signal at times corresponding to the amplitude of the capacitance signal being substantially equal to a ground, common mode or minimum value.
Light sheet microscope, comprising an optical system with at least one first optical element, at least one second optical element and a mirror assembly, wherein the mirror assembly, in a first operational state is in a first operational position and in a second operational state is moved into a second operational position, wherein, - in the first operational state of the microscope, the optical system is configured to transmit illumination light along a first illumination light path through the at least one first optical element into a first sample volume and configured to transmit observation light along a first observation light path from the first sample volume to a detector device, wherein, - in the second operational state of the microscope, the optical system is configured to transmit the illumination light along a second illumination light path via the mirror assembly through the at least one second optical element into a second sample volume and configured to transmit observation light along a second observation light path from the second sample volume to the detector device, and - wherein the first sample volume and the second sample volume are nonoverlapping with one another. - in the first operational state of the microscope, the optical system is configured to transmit illumination light along a first illumination light path through the at least one first optical element into a first sample volume and configured to transmit observation light along a first observation light path from the first sample volume to a detector device, wherein, - in the second operational state of the microscope, the optical system is configured to transmit the illumination light along a second illumination light path via the mirror assembly through the at least one second optical element into a second sample volume and configured to transmit observation light along a second observation light path from the second sample volume to the detector device, and - wherein the first sample volume and the second sample volume are nonoverlapping with one another.