mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a protrusion splint, wherein the protrusion splint comprises an upper contact region for defined contact for an upper jaw region and a lower contact region for defined contact for a lower jaw region, wherein the lower jaw region is held in a position determined by the protrusion splint relative to the upper jaw region when the jaw regions (2, 3) contact the respective contact regions (7, 8), comprising the following method steps: Fixing the jaw regions (2, 3) in a first position, wherein the lower jaw region is shifted forwards relative to the upper jaw region in the first position compared to the normal position of the jaws, Creating a three-dimensional image dataset of an air passage in the region of the trachea while the jaw regions (2, 3) are fixed in the first position, Determining an opening size (Q, V, X) of the air passage on the basis of the three-dimensional image dataset of the air passage created in the first position, Checking the air passage on the basis of the three-dimensional image dataset, as to whether the determined opening size (Q, V, X) of the air passage in the first position corresponds to a target specification, in the event that the determined opening size (Q, V, X) does not correspond to the target specification, determination of a correction value on the basis of the difference between the determined opening size (Q, V, X) and the target specification, wherein proceeding from the first position a second position is defined on the basis of the correction value, Producing the protrusion splint such that the lower jaw is held in the second position relative to the upper jaw when the jaw regions (2, 3) contact the respective contact regions (7, 8). Fixing the jaw regions (2, 3) in a first position, wherein the lower jaw region is shifted forwards relative to the upper jaw region in the first position compared to the normal position of the jaws, Creating a three-dimensional image dataset of an air passage in the region of the trachea while the jaw regions (2, 3) are fixed in the first position, Determining an opening size (Q, V, X) of the air passage on the basis of the three-dimensional image dataset of the air passage created in the first position, Checking the air passage on the basis of the three-dimensional image dataset, as to whether the determined opening size (Q, V, X) of the air passage in the first position corresponds to a target specification, in the event that the determined opening size (Q, V, X) does not correspond to the target specification, determination of a correction value on the basis of the difference between the determined opening size (Q, V, X) and the target specification, wherein proceeding from the first position a second position is defined on the basis of the correction value, Producing the protrusion splint such that the lower jaw is held in the second position relative to the upper jaw when the jaw regions (2, 3) contact the respective contact regions (7, 8).
A method comprising: receiving, at data processing hardware, a maneuver script comprising a plurality of maneuvers for a legged robot to perform, each maneuver associated with a cost; identifying, by the data processing hardware, that a first maneuver and a second maneuver of the plurality of maneuvers of the maneuver script occur at a same time instance; determining, by the data processing hardware, a conflict between the first maneuver and the second maneuver in which both the first maneuver and the second maneuver command a first joint;determining, by the data processing hardware, a combined maneuver for the legged robot to perform at the time instance based on the first maneuver and the second maneuver and the costs associated with the first maneuver and the second maneuver; and generating, by the data processing hardware, a joint command to control motion of the legged robot at the time instance, the joint command commanding a set of joints including the first joint of the legged robot, the set of joints corresponding to the combined maneuver, the joint command controlling motion of the first joint to implement at least a portion of the combined maneuver. receiving, at data processing hardware, a maneuver script comprising a plurality of maneuvers for a legged robot to perform, each maneuver associated with a cost; identifying, by the data processing hardware, that a first maneuver and a second maneuver of the plurality of maneuvers of the maneuver script occur at a same time instance; determining, by the data processing hardware, a conflict between the first maneuver and the second maneuver in which both the first maneuver and the second maneuver command a first joint;determining, by the data processing hardware, a combined maneuver for the legged robot to perform at the time instance based on the first maneuver and the second maneuver and the costs associated with the first maneuver and the second maneuver; and generating, by the data processing hardware, a joint command to control motion of the legged robot at the time instance, the joint command commanding a set of joints including the first joint of the legged robot, the set of joints corresponding to the combined maneuver, the joint command controlling motion of the first joint to implement at least a portion of the combined maneuver.
Drive unit for a motor vehicle, having - a combustion machine which comprises an internal combustion engine and an exhaust-gas tract via which exhaust gas can be discharged from the internal combustion engine, and having - a cycle process apparatus which can be used for converting the heat energy contained in the exhaust gas into mechanical work in a clockwise thermodynamic cycle process, wherein the cycle process comprises - a transfer of heat from the exhaust gas to a working medium in a first heat exchange apparatus, whereby the temperature and/or the pressure of the working medium are/is increased, - an expansion of the working medium in an expansion apparatus in order to generate the mechanical work, and - a transfer of heat from the working medium to a cooling medium in a second heat exchange apparatus, wherein the first heat exchange apparatus comprises a first heat exchanger and a second heat exchanger and an intermediate circuit with a transfer medium, wherein, in the first heat exchanger, heat energy is transferred from the exhaust gas to the transfer medium, and in the second heat exchanger, heat energy is transferred from the transfer medium to the working medium, characterized in that the transfer medium is a thermal oil. - a combustion machine which comprises an internal combustion engine and an exhaust-gas tract via which exhaust gas can be discharged from the internal combustion engine, and having - a cycle process apparatus which can be used for converting the heat energy contained in the exhaust gas into mechanical work in a clockwise thermodynamic cycle process, wherein the cycle process comprises - a transfer of heat from the exhaust gas to a working medium in a first heat exchange apparatus, whereby the temperature and/or the pressure of the working medium are/is increased, - an expansion of the working medium in an expansion apparatus in order to generate the mechanical work, and - a transfer of heat from the working medium to a cooling medium in a second heat exchange apparatus, - a transfer of heat from the exhaust gas to a working medium in a first heat exchange apparatus, whereby the temperature and/or the pressure of the working medium are/is increased, - an expansion of the working medium in an expansion apparatus in order to generate the mechanical work, and - a transfer of heat from the working medium to a cooling medium in a second heat exchange apparatus,
A circuit, comprising: an encoder configured to receive data and a data mask signal and to generate encoded data, the data mask signal in a first state indicating that the data transmitted from the circuit to another circuit is to be ignored and the data mask signal in a second state indicating that the data transmitted from the circuit to said another circuit is not to be ignored, the encoder configured to encode a first subset of the data with data bus inversion and a second subset of the data differently from data bus inversion to generate the encoded data responsive to the data mask signal being in the second state; and a transmitter configured to transmit the encoded data over a communication link, wherein the encoder is further to configured to generate a modified data mask signal, the modified data mask signal being in the first state responsive to the data mask signal being in the first state or the encoder encoding the second subset of the data differently from data bus inversion. an encoder configured to receive data and a data mask signal and to generate encoded data, the data mask signal in a first state indicating that the data transmitted from the circuit to another circuit is to be ignored and the data mask signal in a second state indicating that the data transmitted from the circuit to said another circuit is not to be ignored, the encoder configured to encode a first subset of the data with data bus inversion and a second subset of the data differently from data bus inversion to generate the encoded data responsive to the data mask signal being in the second state; and a transmitter configured to transmit the encoded data over a communication link, wherein the encoder is further to configured to generate a modified data mask signal, the modified data mask signal being in the first state responsive to the data mask signal being in the first state or the encoder encoding the second subset of the data differently from data bus inversion.
A method for sealing a carpule containing a liquid, said carpule comprising a body with an aperture at at least one end and including at least one sealing plug, said plug comprising at least two annular lips, for sealing said aperture after filling, said filling defining a free filling area S, the filling having left a head space in said carpule, characterised in that it consists in performing, successively, the different following steps of: a) introducing at least one rod in parallel to an internal wall of the body of said carpule, until its end is immediately above the free filling area S of the liquid composition, contained in the body of the carpule, b) mechanically inserting said plug in the body, along the at least one insertion rod, generating at least one channel C, the air of the head space being discharged between said plug and said rod, c) removing said at least one rod by leaving said plug in place at the insertion level of the previous step. a) introducing at least one rod in parallel to an internal wall of the body of said carpule, until its end is immediately above the free filling area S of the liquid composition, contained in the body of the carpule, b) mechanically inserting said plug in the body, along the at least one insertion rod, generating at least one channel C, the air of the head space being discharged between said plug and said rod, c) removing said at least one rod by leaving said plug in place at the insertion level of the previous step.
Group of at least one organic light emitting diode, wherein each diode of this group comprises, in an interval limited by a bottom electrode and a top electrode, at least one organic light-emitting layer that is adapted to emit visible light through one of said electrodes that is semi-transparent, wherein the light intensity of the emitted visible light encompassing the emitted visible light of all organic light-emitting layer(s) of the diode(s) of said group is distributed over a range of wavelengths that is superior or equal to 150 nm, wherein λ M is the center of said wavelength range, and, said group comprises a light-extraction enhancement layer made of a dielectric material, which is located outside said interval of each diode of this group, which is directly adjacent to the electrode of each diode of this group that is semi-transparent, characterized in that, if n D is the optical index of said dielectric material, the thickness of said light-extraction enhancement layer is equal to 5.λ M / 8.n D with a margin of ± 10%.
A method of preparing a superabsorbent polymer, the method comprising: polymerizing and crosslinking a monomer composition having acrylic acid-based monomers having acidic groups which are at least partially neutralized, in the presence of a polymerization initiator and a first crosslinking agent, to form a water-containing gel polymer; coarsely pulverizing the water-containing gel polymer; drying the coarsely pulverized water-containing gel polymer; pulverizing the dried polymer; and surface-modifying the pulverized polymer by a second crosslinking agent, wherein the coarse pulverization of the water-containing gel polymer is conducted while mixing the water-containing gel polymer with a metal sulfate and a powder of the superabsorbent polymer, which is obtained during the preparation process of the superabsorbent polymer, with the water-containing gel polymer, wherein the coarsely pulverized water-containing gel polymer has an average particle size of 2 mm to 10 mm, the powder of the superabsorbent polymer comprises fine particles having a particle size of 10 μm to 150 μm obtained during the preparation process of the superabsorbent polymer, granules of the fine particles, or a mixture of the fine particles and the granules, wherein the fine particles are obtained by size-sorting in a subsequent process of pulverizing the dried polymer. polymerizing and crosslinking a monomer composition having acrylic acid-based monomers having acidic groups which are at least partially neutralized, in the presence of a polymerization initiator and a first crosslinking agent, to form a water-containing gel polymer; coarsely pulverizing the water-containing gel polymer; drying the coarsely pulverized water-containing gel polymer; pulverizing the dried polymer; and surface-modifying the pulverized polymer by a second crosslinking agent, wherein the coarse pulverization of the water-containing gel polymer is conducted while mixing the water-containing gel polymer with a metal sulfate and a powder of the superabsorbent polymer, which is obtained during the preparation process of the superabsorbent polymer, with the water-containing gel polymer, wherein the coarsely pulverized water-containing gel polymer has an average particle size of 2 mm to 10 mm, the powder of the superabsorbent polymer comprises fine particles having a particle size of 10 μm to 150 μm obtained during the preparation process of the superabsorbent polymer, granules of the fine particles, or a mixture of the fine particles and the granules, wherein the fine particles are obtained by size-sorting in a subsequent process of pulverizing the dried polymer.
A method for monitoring suitability of geometry of a tubular object (to) by simultaneously photographing the tubular object (to) by at least two imaging devices (id1, id2,...) and transferring their output data into a computer (c), which is provided with a photogrammetry software and which extracts a three-dimensional model of the tubular object (to) from said output data, and wherein a reference three-dimensional model of the tubular object (to) is stored and which analyses deviations of said three-dimensional model of the tubular object (to) from said reference three-dimensional model of said tubular object (to), characterized in that a horizontally positioned display device (dd) displays an image (tormi) of the reference three-dimensional model of the tubular object (to), that a user positions the tubular object (to) on the horizontally positioned display device (dd) over the image (tormi) of the reference three-dimensional model of the tubular object (to) in the position, in which it is represented by the image (tormi) of the reference three-dimensional model, that the imaging devices (id1, id2,...) simultaneously photograph the tubular object (to) illuminated by said display device (dd) and that the computer (c) checks the three-dimensional model of the tubular object (to) as extracted from said output data against the reference three-dimensional model of the tubular object (to) and the user's attention is called whenever the deviations of said models from each other exceed tolerance at the currently monitored tubular object (to).
An intermediate of formula for the synthesis of caspofungin, wherein, R 1 is C(=O)NH 2, CN, or CH 2 NR 3 R 4; R 2 is CN, CO 2 R 5, or C(=O)NR 6 R 7; R 3 and R 4 are each independently hydrogen or amino protecting group; R 5 is hydrogen, linear or branched C 1-10 alkyl, linear or branched C 3-10 alkenyl or C 3-10 alkynyl, C 3-8 cycloalkyl, or substituted or unsubstituted C 6-10 aryl or heteroaryl; R 6 and R 7 are each independently hydrogen, amino, methoxy, linear or branched C 1-10 alkyl, linear or branched C 3-10 alkenyl or C 3-10 alkynyl, C 3-8 cycloalkyl, or substituted or unsubstituted C 6-10 aryl or heteroaryl; or R 6 and R 7 together with nitrogen atom form five- to eight-membered heterocycle; R 6 and R 7 cannot be amino or methoxy group at the same time.
A method of operating a washing machine, the method comprising: (a) supplying washing fluid into a drum configured to receive laundry items therein; (b) accelerating a rotation of the drum in a first direction to draw laundry items toward a circumferential surface of the drum, the drum being rotated at a speed to cause the laundry to cling to the inner circumferential surface to the drum due to centrifugal force in step (b); (c) decelerating the rotation of the drum to allow the laundry items to fall from the circumferential surface of the drum due to gravity; and (d) repeating steps (b) and (c) for a prescribed number of times greater than one, characterized in that a speed of the drum is changed within a speed range of about 50 to 100 rpm during the step (b) and (c), and wherein steps (b) and (c) further comprise spraying washing fluid onto laundry items in the drum as the laundry items are alternately drawn towards and released from the circumferential surface of the drum to circulate washing fluid. (a) supplying washing fluid into a drum configured to receive laundry items therein; (b) accelerating a rotation of the drum in a first direction to draw laundry items toward a circumferential surface of the drum, the drum being rotated at a speed to cause the laundry to cling to the inner circumferential surface to the drum due to centrifugal force in step (b); (c) decelerating the rotation of the drum to allow the laundry items to fall from the circumferential surface of the drum due to gravity; and (d) repeating steps (b) and (c) for a prescribed number of times greater than one, characterized in that a speed of the drum is changed within a speed range of about 50 to 100 rpm during the step (b) and (c), and wherein steps (b) and (c) further comprise spraying washing fluid onto laundry items in the drum as the laundry items are alternately drawn towards and released from the circumferential surface of the drum to circulate washing fluid.
A protective cap for an imaging device, comprising: a hollow protective cap body having a front surface, a shell surface and an open rear end through which the imaging device can be inserted into the protective cap; a recess disposed in the front surface and having a bottom which seals the interior cavity from the recess bottom, wherein the bottom comprises a transparent material; characterized in that the protective cap further comprises: at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap. a hollow protective cap body having a front surface, a shell surface and an open rear end through which the imaging device can be inserted into the protective cap; a recess disposed in the front surface and having a bottom which seals the interior cavity from the recess bottom, wherein the bottom comprises a transparent material; characterized in that the protective cap further comprises: at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap. at least one channel disposed in the front portion of the protective cap body below the front surface; wherein the at least one channel has a first opening disposed in the side wall of the recess and a second opening disposed in the shell surface of the protective cap body, and wherein the at least one channel provides fluid communication between the recess and the outer environment of the protective cap.
A method for measuring the hematocrit of a subject, the method comprising the procedures of: emitting light with at least one emitter, at at least one measurement wavelength within the spectral range of 380-980nm, wherein said at least one measurement wavelength is an isosbestic wavelength of oxyhemoglobin and desoxyhemoglobin, toward a body part containing at least one blood vessel; obtaining spatially resolved reflection measurements, by capturing light reflected by said body part, with at least one reflectance detector (104 1...104 N); extracting at least one of: the absorption coefficient (μ a) and the reduced scattering coefficient (μ' s) of the blood component of said body part at each of said at least one wavelength, from said measurements; extracting the temporal derivatives of said at least one of said absorption coefficient and said reduced scattering coefficient ( ∂ μ s ′ ∂ t and ∂ μ a ∂ t); and calculating said hematocrit using the ratio of said temporal derivatives at a single isosbestic wavelength of oxyhemoglobin and deoxyhemoglobin, for each of said at least one measurement wavelength. emitting light with at least one emitter, at at least one measurement wavelength within the spectral range of 380-980nm, wherein said at least one measurement wavelength is an isosbestic wavelength of oxyhemoglobin and desoxyhemoglobin, toward a body part containing at least one blood vessel; obtaining spatially resolved reflection measurements, by capturing light reflected by said body part, with at least one reflectance detector (104 1...104 N); extracting at least one of: the absorption coefficient (μ a) and the reduced scattering coefficient (μ' s) of the blood component of said body part at each of said at least one wavelength, from said measurements; extracting the temporal derivatives of said at least one of said absorption coefficient and said reduced scattering coefficient ( ∂ μ s ′ ∂ t and ∂ μ a ∂ t); and calculating said hematocrit using the ratio of said temporal derivatives at a single isosbestic wavelength of oxyhemoglobin and deoxyhemoglobin, for each of said at least one measurement wavelength.