mhurhangee/ep-ind-claims huggingface dataset:
An image generating and playing-piece-interacting assembly comprising: an image generating device having a display screen on which generated images can be displayed; the generated images comprising integrated visual and optically encoded message images; a touch sensitive membrane operably coupled to the image generating device to allow a user to provide touch input; a receptor operably coupled to the image generating device; a first playing piece at a first location relative to the display screen, the first playing piece comprising: an optical display message sensor configured to receive the integrated visual and optically encoded message image and to generate a first signal at least partially based upon the optically encoded message image; a messaging transponder coupled to the optical display message sensor for receipt of at least the first signal from the optical display message sensor; and the messaging transponder coupled to the receptor for generating and sending to the receptor a second signal at least partially based upon the first signal. an image generating device having a display screen on which generated images can be displayed; the generated images comprising integrated visual and optically encoded message images; a touch sensitive membrane operably coupled to the image generating device to allow a user to provide touch input; a receptor operably coupled to the image generating device; a first playing piece at a first location relative to the display screen, the first playing piece comprising: an optical display message sensor configured to receive the integrated visual and optically encoded message image and to generate a first signal at least partially based upon the optically encoded message image; a messaging transponder coupled to the optical display message sensor for receipt of at least the first signal from the optical display message sensor; and the messaging transponder coupled to the receptor for generating and sending to the receptor a second signal at least partially based upon the first signal. an optical display message sensor configured to receive the integrated visual and optically encoded message image and to generate a first signal at least partially based upon the optically encoded message image; a messaging transponder coupled to the optical display message sensor for receipt of at least the first signal from the optical display message sensor; and the messaging transponder coupled to the receptor for generating and sending to the receptor a second signal at least partially based upon the first signal.
Peptide comprising the SEQ ID NO: 1 or SEQ ID NO: 3 coupled to a substance to be delivered into any required cell compartment, including the delivery inside the nucleus or the nucleolus, for use in the prevention or treatment of human or animal diseases.
Method for removal of ambiguity resolution in distance on the measures implemented by a radar system using at least one pulse-Doppler radar which receives backscattered signals from a moving target, the distance from the target being known to a rank of ambiguity distance close, the method being characterised in that the Doppler radar transmits a signal comprising two trains of N periodic pulses, the difference ΔTr between the periods of recurrence of the two pulse trains being equal to an integer k cd strictly greater than 1 distance cell and less than 1/(2N Fd max), where Fd max represents the maximum Doppler frequency considered, - and in that the method comprises: - a step of separating the two pulse trains of the signal received into two sub-signals each comprising a train of N pulses, - a step of removing the contribution of the parasitic echoes from the clutter on each of the sub-signals, - a step of successive testing of the different hypotheses of possible ranks of ambiguity comprising for each of the ambiguity ranks tested a step of clustering the two sub-signals after temporally offsetting one of the two sub-signals by a value of r-k cd distance cells, r being the ambiguity rank tested. - and in that the method comprises: - a step of separating the two pulse trains of the signal received into two sub-signals each comprising a train of N pulses, - a step of removing the contribution of the parasitic echoes from the clutter on each of the sub-signals, - a step of successive testing of the different hypotheses of possible ranks of ambiguity comprising for each of the ambiguity ranks tested a step of clustering the two sub-signals after temporally offsetting one of the two sub-signals by a value of r-k cd distance cells, r being the ambiguity rank tested. - a step of separating the two pulse trains of the signal received into two sub-signals each comprising a train of N pulses, - a step of removing the contribution of the parasitic echoes from the clutter on each of the sub-signals, - a step of successive testing of the different hypotheses of possible ranks of ambiguity comprising for each of the ambiguity ranks tested a step of clustering the two sub-signals after temporally offsetting one of the two sub-signals by a value of r-k cd distance cells, r being the ambiguity rank tested.
Switching arrangement for switching off an electric current with high slew rate, especially a short-circuit current, the switching arrangement comprises: - a main line with a first SCR-arrangement comprising at least a first SCR and a first reverse conducting diode arranged in parallel to the first SCR, - a first bypass line connected to the main line and arranged in parallel to the first SCR-arrangement, - the first bypass line comprises a second SCR-arrangement comprising at least a second SCR arranged in the same polarity as the first reverse conducting diode, - the first bypass line further comprises at least one capacitor and a DC-voltage source connected to the capacitor for pre-charging the capacitor, characterised in that main line further comprises a third SCR-arrangement comprising at least a third SCR and a third reverse conducting diode arranged in parallel to the third SCR, and that the third SCR-arrangement is arranged in the main line with a polarity contrary to a polarity of the first SCR-arrangement, and that the switching arrangement comprises a second bypass line connected to the main line and arranged in parallel to the third SCR-arrangement, and that the second bypass line comprises a fourth SCR-arrangement comprising at least a fourth SCR arranged in the same polarity as the third reverse conducting diode. - a main line with a first SCR-arrangement comprising at least a first SCR and a first reverse conducting diode arranged in parallel to the first SCR, - a first bypass line connected to the main line and arranged in parallel to the first SCR-arrangement, - the first bypass line comprises a second SCR-arrangement comprising at least a second SCR arranged in the same polarity as the first reverse conducting diode, - the first bypass line further comprises at least one capacitor and a DC-voltage source connected to the capacitor for pre-charging the capacitor,
Optical swivelling device for imaging and/or projection of an object scene, having a supporting structure, a detection/transmission unit arranged in the supporting structure, a pitch frame and a roll frame, with the pitch frame being mounted in the roll frame such that it can rotate about a pitch axis and with the roll frame being mounted in the supporting structure such that it can rotate about a roll axis, with the pitch axis and the roll axis intersecting at an intersection angle, first deflection optics arranged in the pitch frame such that a beam propagating along the pitch axis is deflected in an object-side direction which intersects the pitch axis at the intersection angle, and vice versa, and second deflection optics arranged in the roll frame such that a beam propagating along the pitch axis is deflected in the direction along the roll axis, and vice versa, wherein the first and the second deflection optics (30 or 34, respectively) each comprise a prism (27 or 32, respectively) for deflection of the beams, characterized in that the intersection angle is less than 90° and in that the prisms (27, 32) are designed and arranged such that they each have an even number of reflection surfaces, in particular two reflection surfaces.
A method of manufacturing a self-supporting applicator comprising a first structural element, the first structural element being a facial mask having a customized three-dimensional shape determined from a target human face; the first structural element including an active agent; the method comprising the steps of: i) acquiring a three-dimensional scan of said target human face; ii) evaluating data of the scan for geometric signatures to identify areas of the target human face suitable for treatment; iii) manufacturing said first structural element to have a shape determined from the scanned target human face; iv) incorporating results of the scan into the first structural element by way of indicia in one or more surface portions of the first structural element, the indicia being formed as relative changes in the texture of the first structural element at locations of opportunity identified from analysis of the scan, said indicia indicating portions of the surface of the first structural element where active agent is to be disposed; and v) disposing the active agent at said indicia in the one or more surface portions. i) acquiring a three-dimensional scan of said target human face; ii) evaluating data of the scan for geometric signatures to identify areas of the target human face suitable for treatment; iii) manufacturing said first structural element to have a shape determined from the scanned target human face; iv) incorporating results of the scan into the first structural element by way of indicia in one or more surface portions of the first structural element, the indicia being formed as relative changes in the texture of the first structural element at locations of opportunity identified from analysis of the scan, said indicia indicating portions of the surface of the first structural element where active agent is to be disposed; and v) disposing the active agent at said indicia in the one or more surface portions.
An infant incubator with radiant heater comprising a radiant means with an infrared heater, wherein an infant bed is provided below the radiant means and comprises a humidifier and a second thermostat, characterized in that a transparent sphere cover is mounted around the infant bed, a volute casing having a circulating blower and a cover board for directing air are provided under the infant bed, the cover board includes an air outlet and an air return inlet, humid and warm air generated by the second thermostat and the humidifier flows through the circulating blower in the volute casing, the air outlet in the cover board, and then is directed by a cambered surface of the transparent sphere cover to a surface of the infant bed, finally, enters the air return inlet so as to achieve a circulation of humid and warm air, thereby forming an appropriate humid and warm environment around the infant bed.
A system for performing a task on an apparatus, the system comprising: the apparatus; a supply of parts comprising a plurality of parts located apart from the apparatus; a robot having an end effector, wherein the robot is configured to obtain one or more of the plurality of parts from the supply of parts and wherein the end effector is configured to perform the task on the apparatus using one or more of the plurality of parts, the robot comprising a local metrology device configured to position the end effector with respect to the apparatus using a local vision system, such that the end effector is aligned with the apparatus sufficiently to perform the task; and a global metrology device configured to track positions of the apparatus, the robot, and the supply of parts with respect to one another using a global vision system, wherein the global metrology device is configured to communicate data to the robot about the positions of the apparatus and the supply of parts, and wherein the global metrology device is configured to receive feedback regarding actual positions of the robot, the apparatus, and the supply of parts, and wherein the global metrology device is configured to supplement the local metrology device in positioning the end effector. the apparatus; a supply of parts comprising a plurality of parts located apart from the apparatus; a robot having an end effector, wherein the robot is configured to obtain one or more of the plurality of parts from the supply of parts and wherein the end effector is configured to perform the task on the apparatus using one or more of the plurality of parts, the robot comprising a local metrology device configured to position the end effector with respect to the apparatus using a local vision system, such that the end effector is aligned with the apparatus sufficiently to perform the task; and a global metrology device configured to track positions of the apparatus, the robot, and the supply of parts with respect to one another using a global vision system, wherein the global metrology device is configured to communicate data to the robot about the positions of the apparatus and the supply of parts, and wherein the global metrology device is configured to receive feedback regarding actual positions of the robot, the apparatus, and the supply of parts, and wherein the global metrology device is configured to supplement the local metrology device in positioning the end effector.
A method for controlling charge stability in a device for quantum information processing, wherein the device for quantum information processing comprises: a first plurality of confinement regions (210, 220) confining spinful charge carriers for use as qudits; a second plurality of confinement regions confining spinful charge carriers, each confinement region of the second plurality of confinement regions adjacent to a confinement region of the first plurality of confinement regions; and one or more charge reservoirs, wherein each confinement region of the second plurality of confinement regions is attachable to a charge reservoir; wherein the method for controlling charge stability comprises: selectively tuning the relative energy levels of the first plurality of confinement regions and adjacent confinement regions of the second plurality of confinement regions, wherein tuning the relative energy levels of the confinement regions comprises tuning the energy levels of the confinement regions such that the highest occupied energy level of a confinement region of the second plurality of confinement regions is lower than a desired lowest unoccupied energy level of the adjacent confinement region of the first plurality of confinement regions and greater than a desired highest occupied energy level of the adjacent confinement region of the first plurality of confinement regions such that, if a spinful charge carrier leaks from a confinement region of the first plurality of confinement regions, then the spinful charge carrier is replaced to ensure that the confinement region of the first plurality of confinement regions again contains a spinful charge carrier for use as a qudit. a first plurality of confinement regions (210, 220) confining spinful charge carriers for use as qudits; a second plurality of confinement regions confining spinful charge carriers, each confinement region of the second plurality of confinement regions adjacent to a confinement region of the first plurality of confinement regions; and one or more charge reservoirs, wherein each confinement region of the second plurality of confinement regions is attachable to a charge reservoir;
A method of creating a real-time oxidation-reduction potential ("ORP") signature in a hot water system to detect REDOX stress and inhibit corrosion in the hot water system, the method comprising: (a) defining more than one operational protective zones ("zone" or "zones") in the hot water system; (b) selecting at least two of the defined zones, wherein at least two of the selected zones includes at least one ORP probe operable to measure the real-time ORP and communicate with a controller, and wherein the ORP probe optionally includes a temperature detector, a noble metal electrode, and a reference electrode; (c) either intermittently or continuously measuring the real-time ORP at one or more of the selected zones white the hot water system is at operating temperature and pressure; (d) transmitting the measured real-time ORP to the controller; (e) optionally producing one or more calculated ORPs based upon the measured ORP; (f) analyzing the measured real-time ORP or the calculated ORP or integrating at least two of the measured real-time ORPs or at least two of the calculated ORPs to create the ORP signature for the hot water system; (g) assessing whether the ORP signature conforms to an ORP setting, wherein the ORP setting is either a same ORP setting for each of the selected zones or a different ORP setting for at least two of the selected zones, and wherein the ORP setting optionally changes over time; (h) optionally feeding an effective amount of one or more active chemical species into the hot water system to alter the ORP signature; and (i) ramping from one of the selected zones to another one of the selected zones after a triggering event. (a) defining more than one operational protective zones ("zone" or "zones") in the hot water system; (b) selecting at least two of the defined zones, wherein at least two of the selected zones includes at least one ORP probe operable to measure the real-time ORP and communicate with a controller, and wherein the ORP probe optionally includes a temperature detector, a noble metal electrode, and a reference electrode; (c) either intermittently or continuously measuring the real-time ORP at one or more of the selected zones white the hot water system is at operating temperature and pressure; (d) transmitting the measured real-time ORP to the controller; (e) optionally producing one or more calculated ORPs based upon the measured ORP; (f) analyzing the measured real-time ORP or the calculated ORP or integrating at least two of the measured real-time ORPs or at least two of the calculated ORPs to create the ORP signature for the hot water system; (g) assessing whether the ORP signature conforms to an ORP setting, wherein the ORP setting is either a same ORP setting for each of the selected zones or a different ORP setting for at least two of the selected zones, and wherein the ORP setting optionally changes over time; (h) optionally feeding an effective amount of one or more active chemical species into the hot water system to alter the ORP signature; and (i) ramping from one of the selected zones to another one of the selected zones after a triggering event.
A method comprising: (a) generating pulses of light with wavelength λ, wherein the length of each of said pulses of light is less than 1 picosecond, (b) propagating the pulses in a first optical fiber section wherein the optical pulses propagate in a lower order mode, (c) converting the lower order mode to a higher order mode, and (d) propagating the higher order mode pulses in an higher order mode second optical fiber section having: (i) a core, an inner cladding and an outer cladding, the inner cladding extending to a radius of at least 20 μm, with the inner cladding and the core producing a mode field diameter of at least 40 μm, (ii) an effective area greater than 350 μm 2, and (iii) a ratio of dispersion slope to dispersion such that it provides spectral phase -Φ(ω 0) approximately equal and opposite to the spectral phase of the optical pulses at the input of the second optical fiber section, wherein the absolute value of the ratio of the dispersion slope to dispersion is approximately 2 divided by the pulse wavelength λ; wherein the higher order mode is LPx,y where x is 0, and y is equal to or greater than 4. (a) generating pulses of light with wavelength λ, wherein the length of each of said pulses of light is less than 1 picosecond, (b) propagating the pulses in a first optical fiber section wherein the optical pulses propagate in a lower order mode, (c) converting the lower order mode to a higher order mode, and (d) propagating the higher order mode pulses in an higher order mode second optical fiber section having: (i) a core, an inner cladding and an outer cladding, the inner cladding extending to a radius of at least 20 μm, with the inner cladding and the core producing a mode field diameter of at least 40 μm, (ii) an effective area greater than 350 μm 2, and (iii) a ratio of dispersion slope to dispersion such that it provides spectral phase -Φ(ω 0) approximately equal and opposite to the spectral phase of the optical pulses at the input of the second optical fiber section, wherein the absolute value of the ratio of the dispersion slope to dispersion is approximately 2 divided by the pulse wavelength λ; (i) a core, an inner cladding and an outer cladding, the inner cladding extending to a radius of at least 20 μm, with the inner cladding and the core producing a mode field diameter of at least 40 μm, (ii) an effective area greater than 350 μm 2, and (iii) a ratio of dispersion slope to dispersion such that it provides spectral phase -Φ(ω 0) approximately equal and opposite to the spectral phase of the optical pulses at the input of the second optical fiber section, wherein the absolute value of the ratio of the dispersion slope to dispersion is approximately 2 divided by the pulse wavelength λ;
An elevator operation control method of estimating an amount of shake of a long object (13, 17) which moves accompanying lifting and lowering of a passenger cage by way of simulation based on an amount of shake of a building in which an elevator is installed and current position information of the passenger cage of the elevator, and controlling and operating the elevator according to the estimated amount of shake of the long object, the elevator operation control method comprising: changing every second a physical model of the simulation according to the position of the running passenger cage, and simulating in real time the amount of shake of the long object (13, 17) from the current amount of shake of the building and position information of the running passenger cage; and when the amount of shake of the long object (13, 17) calculated by the simulation exceeds a threshold determined in advance, performing a control operation matching this threshold. changing every second a physical model of the simulation according to the position of the running passenger cage, and simulating in real time the amount of shake of the long object (13, 17) from the current amount of shake of the building and position information of the running passenger cage; and when the amount of shake of the long object (13, 17) calculated by the simulation exceeds a threshold determined in advance, performing a control operation matching this threshold.
A rail, in particular a grooved rail, comprising an upper part and a lower part, whereby the upper part consisting of wear-resistant material is head of the rail and comprises a cuboid shape, and the lower part comprises a profiled element in the form of a double-T profile, the upper flange of which lies against a recess with a vertically or essentially vertically running section, wherein the recess is present at the lower side of the head and forms a step and wherein the upper flange is at least firmly bonded with the head, characterized in that the upper part and the lower part consist of different materials, that the lower part consists of the double-T profile, that the upper flange of the double-T profile lies against the section of a single step formed in the lower side, wherein the section runs vertically or essentially vertically, and that via the section centrifugal force generated by a vehicle passing through the rail can be transferred into the double-T profile.
A pharmaceutical composition for use in preventing or treating a retinal disease caused by fibrotic deformation of retinal pigment epithelial cells, comprising as an active ingredient: CCN5.