mhurhangee/ep-ind-claims huggingface dataset:
A positron emission tomography device, which is medical diagnostic imaging equipment, using a scintillation detector, the positron emission tomography device configured to image a detection signal detected using the scintillation detector and comprising: a scintillator formed in a prismatic structure having a polygonal cross-section; a reflecting film formed on an external surface of the scintillator; and a silicon photomultiplier coupled to the scintillator, and characterised in that: the scintillator is a plastic scintillator made of a plastic material; the plastic scintillator comprises a hollow section formed in a central part of the plastic scintillator, and the positron emission tomography device further comprises an optical fiber inserted into the hollow section; and one side of the optical fiber is directly connected to the silicon photomultiplier. a scintillator formed in a prismatic structure having a polygonal cross-section; a reflecting film formed on an external surface of the scintillator; and a silicon photomultiplier coupled to the scintillator, the scintillator is a plastic scintillator made of a plastic material; the plastic scintillator comprises a hollow section formed in a central part of the plastic scintillator, and the positron emission tomography device further comprises an optical fiber inserted into the hollow section; and one side of the optical fiber is directly connected to the silicon photomultiplier.
A single mode optical transmission fiber, comprising a core-and-cladding structure, wherein each of the core portion and the cladding portion contains fluorine as dopant to decrease the refractive index, characterized in that: - said depressed core has at least 0.41 wt% of Fluorine and an absolute refractive index difference (|Δn 1 |) with pure silica greater than 1.5.10 -3; and - a depressed cladding having at least 1.2 wt% of Fluorine, an absolute refractive index difference (|Δn 2 |) with pure silica greater than 4.5.10 -3 and an absolute refractive index difference (|Δn 2 |-|Δn,|) with the depressed core greater than 3.10 -3, wherein said core has at most 1.4 wt% of Fluorine. - said depressed core has at least 0.41 wt% of Fluorine and an absolute refractive index difference (|Δn 1 |) with pure silica greater than 1.5.10 -3; and - a depressed cladding having at least 1.2 wt% of Fluorine, an absolute refractive index difference (|Δn 2 |) with pure silica greater than 4.5.10 -3 and an absolute refractive index difference (|Δn 2 |-|Δn,|) with the depressed core greater than 3.10 -3, wherein said core has at most 1.4 wt% of Fluorine.
A wiper motor (21, 31) which subjects a wiper member to swinging drive, comprising: a motor having a rotation shaft; a speed reduction mechanism part for reducing a rotation of the rotation shaft; a controller having a circuit board on which a plurality of electronic components are mounted, and adapted to control a rotation of the motor; a housing in which the speed reduction mechanism part is housed; a case cover having an inner face to which the controller is attached, and closing an opening of the housing; and a thermally-conductive member adapted to release heat to the housing from the electronic components, characterized in that: the thermally-conductive member has: a first flat portion sandwiched between the inner face of the case cover and at least one electronic component mounted on the circuit board; and a second flat portion disposed between the housing and the case cover. a motor having a rotation shaft; a speed reduction mechanism part for reducing a rotation of the rotation shaft; a controller having a circuit board on which a plurality of electronic components are mounted, and adapted to control a rotation of the motor; a housing in which the speed reduction mechanism part is housed; a case cover having an inner face to which the controller is attached, and closing an opening of the housing; and a thermally-conductive member adapted to release heat to the housing from the electronic components,
An implantable device for the treatment of aneurysmal tissue, comprising: at least one reservoir adapted to be implanted outside from an aneurysmal site;comprising at least one therapeutic agent, wherein the therapeutic agent includes matrix metalloproteinase inhibitors, antibiotics such as doxycycline and tetracycline, cyclooxygenase-2 (COX-2) inhibitors, angiotensin-converting enzyme inhibitors, glucocorticoids, beta blockers, nitric oxide synthase inhibitors, antioxidants, non-steroidal anti-inflammatory drugs (NSAIDs) and cellular adhesion molecules (CAMs), and combinations of these, and a delivery means, wherein the delivery means comprises a pump and tubing for delivering the therapeutic agent to the aneurysmal site. at least one reservoir adapted to be implanted outside from an aneurysmal site;comprising at least one therapeutic agent, wherein the therapeutic agent includes matrix metalloproteinase inhibitors, antibiotics such as doxycycline and tetracycline, cyclooxygenase-2 (COX-2) inhibitors, angiotensin-converting enzyme inhibitors, glucocorticoids, beta blockers, nitric oxide synthase inhibitors, antioxidants, non-steroidal anti-inflammatory drugs (NSAIDs) and cellular adhesion molecules (CAMs), and combinations of these, and a delivery means, wherein the delivery means comprises a pump and tubing for delivering the therapeutic agent to the aneurysmal site.
An optical pulse source comprising: an optical pump laser operable to generate optical pump pulses at a pump pulse repetition rate; a nonlinear optical element comprising a microstructured optical fibre; an optical modulator provided between the pump laser output and the nonlinear optical element, and operable to selectively control the launch of pump pulses into the nonlinear optical element at a variable, lower repetition rate, to thereby selectively control the generation of optical supercontinuum pulses within the nonlinear optical element and their repetition rate; an optical fibre amplifier configured to amplify pulses modulated by the modulator, wherein the microstructured optical fibre is coupled to the output of the amplifier without the use of free space optics. an optical pump laser operable to generate optical pump pulses at a pump pulse repetition rate; a nonlinear optical element comprising a microstructured optical fibre; an optical modulator provided between the pump laser output and the nonlinear optical element, and operable to selectively control the launch of pump pulses into the nonlinear optical element at a variable, lower repetition rate, to thereby selectively control the generation of optical supercontinuum pulses within the nonlinear optical element and their repetition rate; an optical fibre amplifier configured to amplify pulses modulated by the modulator, wherein the microstructured optical fibre is coupled to the output of the amplifier without the use of free space optics.
A data communication node within a mesh network, the data communication node comprising: a radio frequency RF driver configured to transmit RF signals via an antenna to a remote device and receive RF signals from the remote device via the antenna; a timing device configured to generate a plurality of timing signals to synchronize the data communication node with the remote device, the timing signals establishing a plurality of sequential time periods; a memory device configured to store a frequency channel table and a transmitting module configured to forward information related to a first data packet to the RF driver for transmission over a first frequency channel of the predetermined sequence of frequency channels to the remote device during a first time period of the plurality of sequential time periods, characterized in that, the frequency channel table lists a predetermined sequence of frequency channels, the frequency channel table also being stored in the remote device, wherein the memory device is configured to store a hailing frequency channel table including a sequence of frequency channels over which hailing signals are transferred, and wherein the data communication node is tuned to an appropriate channel of the hailing frequency channel table based on a system clock. a radio frequency RF driver configured to transmit RF signals via an antenna to a remote device and receive RF signals from the remote device via the antenna; a timing device configured to generate a plurality of timing signals to synchronize the data communication node with the remote device, the timing signals establishing a plurality of sequential time periods; a memory device configured to store a frequency channel table and a transmitting module configured to forward information related to a first data packet to the RF driver for transmission over a first frequency channel of the predetermined sequence of frequency channels to the remote device during a first time period of the plurality of sequential time periods, characterized in that, the frequency channel table lists a predetermined sequence of frequency channels, the frequency channel table also being stored in the remote device, wherein the memory device is configured to store a hailing frequency channel table including a sequence of frequency channels over which hailing signals are transferred, and wherein the data communication node is tuned to an appropriate channel of the hailing frequency channel table based on a system clock.
An apparatus comprising a powder removing device and a tablet feeder, wherein tablet passages are continuously installed in a discharge opening of the tablet feeder for supplying tablets (T, T1, T2), in turn, from a tablet accommodating case to the discharge opening, and wherein the powder removing device comprises powder removing plates (64a, 64b, 66) having pores or slits whose sizes do not allow the tablet (T, T1, T2) to pass therethrough and interposed to cross the tablet passages, wherein the tablet (T, T1, T2) is discharged through the discharge opening to reach the powder removing plates (64a, 64b, 66), and to drop along the powder removing plates (64a, 64b, 66) to reach a supply opening of the tablet passage, characterized in that the powder removing plates (64a, 64b, 66) comprise a pair of powder removing plates (64a, 64b) disposed to form an inverted triangle and a lower powder removing plate, wherein the pair of powder removing plates (64a, 64b) comprises a first powder removing plate and a second powder removing plate, wherein the pair of powder removing plates (64a, 64b) is installed on an upper part of the tablet passage, and wherein the lower powder removing plate is installed below the pair of powder removing plates (64a, 64b) and inclined downwards.
Complete device having an authentication arrangement for a communication link, using a communication protocol, between two data processing devices of the complete device, wherein the data processing devices each have an interface unit for the communication link and a computing unit, characterised in that the interface units each have an encryption/decryption means, at least partially created by hardware, for encrypting at least some of the user data to be transmitted via the communication link as part of the authentication arrangement, which is applied in a communication layer of the communication protocol to the user data prepared for the physical user data transfer or to the physically received user data, wherein each data processing device has a security unit implemented as embedded hardware, which the computing unit cannot access, and/or in a manner logically isolated from the computing unit, producing a trusted execution environment for the authentication arrangement with, in each case, at least one piece of hardware-encoded key information, on the basis of which the user data is encrypted by the encryption/decryption means.
A surgical laser system comprising: a first laser source and a second laser source; and a laser fiber optically coupled to the first and second laser sources (102A, 102B) and having a probe tip configured to discharge laser energy from the first laser source in a first direction and discharge laser energy from the second laser source in a second direction; wherein the second direction is generally along a longitudinal axis of the laser fiber, the first direction is different than the second direction, and the first direction is generally lateral to the longitudinal axis of the laser fiber, characterized in that the laser energy from the first laser source is configured to perform a first type of laser treatment and the laser energy from the second laser source is configured to perform a second type of laser treatment different from the first type of laser treatment. a first laser source and a second laser source; and a laser fiber optically coupled to the first and second laser sources (102A, 102B) and having a probe tip configured to discharge laser energy from the first laser source in a first direction and discharge laser energy from the second laser source in a second direction; wherein the second direction is generally along a longitudinal axis of the laser fiber, the first direction is different than the second direction, and the first direction is generally lateral to the longitudinal axis of the laser fiber, characterized in that the laser energy from the first laser source is configured to perform a first type of laser treatment and the laser energy from the second laser source is configured to perform a second type of laser treatment different from the first type of laser treatment.
A circuit diagnosing apparatus for a battery pack (1, 2, 3) including a battery cell and a main relay connected in series, the circuit diagnosing apparatus comprising: a control unit configured to output a first signal having a preset duty cycle through a first line connectable to the main relay; and a DC-DC converter, connected to the first line, configured to receive the first signal through the first line, receive a second signal output from the battery cell in response to the first signal changing an operation state of the main relay to a turn-on state, convert the first signal and the second signal, and transmit a first conversion signal and a second conversion signal obtained by the conversion to the control unit, wherein the control unit is configured to receive the first conversion signal and the second conversion signal from the DC-DC converter, determine whether the first conversion signal and the second conversion signal are the same, and determine whether the battery pack (1, 2,3) has a defect based on the determination result. a control unit configured to output a first signal having a preset duty cycle through a first line connectable to the main relay; and a DC-DC converter, connected to the first line, configured to receive the first signal through the first line, receive a second signal output from the battery cell in response to the first signal changing an operation state of the main relay to a turn-on state, convert the first signal and the second signal, and transmit a first conversion signal and a second conversion signal obtained by the conversion to the control unit, wherein the control unit is configured to receive the first conversion signal and the second conversion signal from the DC-DC converter, determine whether the first conversion signal and the second conversion signal are the same, and determine whether the battery pack (1, 2,3) has a defect based on the determination result.
A method for removing NO x gasses by an absorption process and conversion of NO x to nitric acid (HNO 3) in the presence of oxygen and water, wherein the NO x gasses comprise NO, NO 2, N 2 O 3 and N 2 O 5, the method is a two-step method comprising: a) pre-oxidation of nitric oxide to nitrogen dioxide (NO 2) and other H x N y O z species by use of a ionic liquid composition catalyst at an oxidation temperature below the decomposition temperature of the ionic liquid composition catalyst, the pre-oxidation temperature is between 80 and 120°C, thereby forming a pre-oxidized gas mixture, where x, y and z are integers in the ranges x= 0-1, y=1-2, z=1-5, and b) absorption of NO 2 and other H x N y O z species generated in the pre-oxidation process of step a) and conversion of the absorbed NO 2 and other H x N y O z species to form nitric acid (HNO 3) wherein the absorption and conversion occurs in a medium in the presence of oxygen and water at an absorption/conversion temperature between 30 and 80°C which is lower than the pre-oxidation temperature in step a), where the nitric acid (HNO 3) accumulates in the medium. a) pre-oxidation of nitric oxide to nitrogen dioxide (NO 2) and other H x N y O z species by use of a ionic liquid composition catalyst at an oxidation temperature below the decomposition temperature of the ionic liquid composition catalyst, the pre-oxidation temperature is between 80 and 120°C, thereby forming a pre-oxidized gas mixture, where x, y and z are integers in the ranges x= 0-1, y=1-2, z=1-5, and b) absorption of NO 2 and other H x N y O z species generated in the pre-oxidation process of step a) and conversion of the absorbed NO 2 and other H x N y O z species to form nitric acid (HNO 3) wherein the absorption and conversion occurs in a medium in the presence of oxygen and water at an absorption/conversion temperature between 30 and 80°C which is lower than the pre-oxidation temperature in step a), where the nitric acid (HNO 3) accumulates in the medium.
A precipitation hardened heat-resistant steel comprising, in terms of % by mass: from 0.005 to 0.2% of C, not more than 2% of Si, from 1.8 to 3 % of Mn, 15% or more and less than 20% of Ni, from 10 to 20 % of Cr, more than 2% and up to 4% of Ti, from 0.1 to 2% of Al, and from 0.001 to 0.02% of B, and optionally comprising: not more than 5% of Cu, not more than 0.05% of N, not more than 0.03% of Mg, not more than 0.03% of Ca, not more than 2% of Mo, not more than 2% of V, and not more than 2% of Nb, with the balance being Fe and inevitable impurities, wherein a ratio (Ni/Mn) of an amount of Ni to an amount of Mn is from 3 to 9, wherein a total amount of Ni and Mn (Ni+Mn) is 18% or more and less than 25%, and wherein a ratio (Ti/Al) of an amount of Ti to an amount of Al is from 2 to 20. from 0.005 to 0.2% of C, not more than 2% of Si, from 1.8 to 3 % of Mn, 15% or more and less than 20% of Ni, from 10 to 20 % of Cr, more than 2% and up to 4% of Ti, from 0.1 to 2% of Al, and from 0.001 to 0.02% of B, and optionally comprising: not more than 5% of Cu, not more than 0.05% of N, not more than 0.03% of Mg, not more than 0.03% of Ca, not more than 2% of Mo, not more than 2% of V, and not more than 2% of Nb, not more than 5% of Cu, not more than 0.05% of N, not more than 0.03% of Mg, not more than 0.03% of Ca, not more than 2% of Mo, not more than 2% of V, and not more than 2% of Nb, with the balance being Fe and inevitable impurities, wherein a ratio (Ni/Mn) of an amount of Ni to an amount of Mn is from 3 to 9, wherein a total amount of Ni and Mn (Ni+Mn) is 18% or more and less than 25%, and wherein a ratio (Ti/Al) of an amount of Ti to an amount of Al is from 2 to 20.
An insulated solution injector comprising: an outer tube having a first outer surface and a first inner surface; an inner tube extending into the outer tube, the inner tube having a second outer surface and a second inner surface, the first inner surface of the outer tube and the second outer surface of the inner tube defining an annular space, the second inner surface of the inner tube defining a solution space; an injection tip connected to distal ends of the outer tube and the inner tube, the injection tip including a base portion and a shield portion projecting from the base portion, the base portion having a hole extending therethrough, the hole being in communication with the solution space; and an insulating liner within the inner tube and the hole of the injection tip, the insulating liner including a body section, a neck section, and a lip section, the body section being within the distal end of the inner tube, the neck section extending through the hole in the base portion of the injection tip, the lip section being on an opposite side of the base portion from the body section, the lip section having a larger diameter than the neck section, opposing surfaces of the base portion being gripped by an undersurface of the lip section and a shoulder of the insulating liner, the shoulder being an orthogonal surface between the neck section and the body section. an outer tube having a first outer surface and a first inner surface; an inner tube extending into the outer tube, the inner tube having a second outer surface and a second inner surface, the first inner surface of the outer tube and the second outer surface of the inner tube defining an annular space, the second inner surface of the inner tube defining a solution space; an injection tip connected to distal ends of the outer tube and the inner tube, the injection tip including a base portion and a shield portion projecting from the base portion, the base portion having a hole extending therethrough, the hole being in communication with the solution space; and an insulating liner within the inner tube and the hole of the injection tip, the insulating liner including a body section, a neck section, and a lip section, the body section being within the distal end of the inner tube, the neck section extending through the hole in the base portion of the injection tip, the lip section being on an opposite side of the base portion from the body section, the lip section having a larger diameter than the neck section, opposing surfaces of the base portion being gripped by an undersurface of the lip section and a shoulder of the insulating liner, the shoulder being an orthogonal surface between the neck section and the body section.
A composition comprising 100 parts by mass of a pigment, 0.01 to 50 parts by mass of a cellulose composite and water, wherein the composition has a solid content of more than 25% by mass and a viscosity of 30 mPa·s or more, and wherein the cellulose composite contains 0.5% to 50% by mass of a hydrophilic polymer having an acid value of 2.0 or more and a weight-average molecular weight of 1 × 10 3 to 1 × 10 7 and 50% to 99.5% by mass of a crystalline cellulose, and the average particle size of the cellulose composite is 10 μm or less, wherein the primary average particle size of the pigment is 5 μm or less, wherein the average particle size of the cellulose composite is 10 μm or less when measured in the form of a water dispersion of the cellulose composite having a solid content concentration of 1% that is prepared by dispersing the cellulose composite in water using a propeller stirrer equipped with four paddle blades each having a radius of 4 cm at 25°C at 500 rpm for 20 minutes, and the thixotropic index (TI value) of the cellulose composite is 4 or more when measured in the form of a water dispersion of the cellulose composite prepared under the same conditions as described above except that the solid content concentration is set at 2%.