mhurhangee/ep-ind-claims huggingface dataset:
A support frame comprising a first part resting on a plane and a second part interlockingly supported on said first part and forming an upper wall of said frame, wherein said first part comprises four vertical uprights (4a and 4b) and a plurality of internally hollow bodies defined by a sleeve with a vertical axis (5, 6, 7 and 8) configured to house a portion of the respective vertical upright (4a and 4b) and a sleeve with a horizontal axis (5a, 6a, 7a and 8a) configured to house the axial end of a respective first horizontal bar (13, 15 and 17); said sleeves with a vertical axis (5, 6, 7 and 8) being freely rotatable about the longitudinal axis of the respective upright (4a and 4b) so that said first part can take a configuration with reduced overall dimensions for the transportation or storage and a prismatic shaped configuration on which said second part is arranged, and characterized in that said first part defines an inner space housing at least one object or first instrument, said second part supports at least one object or second instrument and the faces of said first part are shaped so as to allow the hooking of any elements to be arranged and assembled and the passage of assembling means between the elements and/or instruments inside said first part and supported by said second part; wherein said bodies are shaped as a 90° rotated T and characterized in that each of said vertical uprights (4a and 4b) has its own lower end inside a vertical portion of a further sleeve having a horizontal portion configured to house an end portion of a second horizontal bar; said additional sleeves resting on the floor.
Safety system in a vehicle for avoiding or mitigating a collision with other road users, wherein said safety system comprises a monitoring means which is configured for monitoring a road for detecting the relative approach of road users to said vehicle and providing a first signal indicative thereof; a first managing means which is operatively connected to the monitoring means and configured for activating, in response to the first signal, active safety means of the vehicle; and a second managing means which is operatively connected to the monitoring means and configured for activating, in response to the first signal, passive safety means of the vehicle, and wherein said first and second managing means (2, 6) are connected in parallel; characterized in that a detecting means which is configured for detecting a collision with another road user and providing a second signal indicative thereof, is operatively connected to the passive safety means and configured for controlling, by means of said second signal, the activation of the passive safety means of the vehicle, that the first managing means is configured for optimizing the balance between suppression of false positive detections of an imminent collision and acknowledgement of true positive detections of an imminent collision, and that the second managing means is configured to have a relatively lower suppression of false positive detections of an imminent collision than the first monitoring means and a relatively higher acknowledgement of true positive detections of an imminent collision.
A method of enhancing viral transduction efficacy in a population of hematopoietic stem cells for gene therapy, comprising: ex vivo contacting a population of hematopoietic stem cells with a viral vector that contains at least one gene of interest for transduction, wherein the population of hematopoietic stem cells to be contacted with the viral vector has been contacted ex vivo with an effective amount of a molecule that has PGE 2 activity. ex vivo contacting a population of hematopoietic stem cells with a viral vector that contains at least one gene of interest for transduction, wherein the population of hematopoietic stem cells to be contacted with the viral vector has been contacted ex vivo with an effective amount of a molecule that has PGE 2 activity.
A method for utilizing channel control information associated with enhanced uplink, EU, transmission, implemented by a wireless transmit/receive unit, WTRU, the method comprising: receiving information via radio resource control, RRC, signaling; receiving control information for at least EU transmission in at least one time slot, wherein the control information is at least a first type or a second type, and wherein the control information of the first type and the control information of the second type are received via a same downlink channel, and wherein the control information is masked with a forty-bit WTRU specific code sequence; determining whether the control information is intended for the WTRU based at least upon the forty-bit WTRU-specific code sequence and the information received via RRC signaling; determining that the control information is the first type or the second type based upon the forty-bit WTRU-specific code sequence and the information received via RRC signaling; and utilizing the control information of the first type or the second type for at least EU transmission on a condition that the control information is intended for the WTRU. receiving information via radio resource control, RRC, signaling; receiving control information for at least EU transmission in at least one time slot, wherein the control information is at least a first type or a second type, and wherein the control information of the first type and the control information of the second type are received via a same downlink channel, and wherein the control information is masked with a forty-bit WTRU specific code sequence; determining whether the control information is intended for the WTRU based at least upon the forty-bit WTRU-specific code sequence and the information received via RRC signaling; determining that the control information is the first type or the second type based upon the forty-bit WTRU-specific code sequence and the information received via RRC signaling; and utilizing the control information of the first type or the second type for at least EU transmission on a condition that the control information is intended for the WTRU.
A method for straightening of a tube comprising the steps: providing a hollow comprising a ferritic FeCrAl-alloy, cold working the hollow into the tube wherein the hollow, during cold working, has a temperature in a range from 90°C to 600°C., annealing the tube in a temperature in 700° C to 1150° C, providing a tube comprising a ferritic FeCrAl-alloy, heating the tube, and straightening and forming the heated tube by stretching wherein the tube is heated prior to the stretching so that the tube during straightening and forming has a temperature in a range from about 100°C to about 1400°C; and wherein the ferritic FeCrAl-alloy comprises in wt-%: Cr 9 to 25; Al 3 to 7; Mo 0 to 5; Y 0.05 to 0.60; Zr 0.01 to 0.30; Hf 0.05 to 0.50; Ta 0.05 to 0.50; Ti 0 to 0.10; C 0.01 to 0.05; N 0.01 to 0.06; O 0.02 to 0.10; Si 0.10 to 3.0; Mn 0.05 to 0.50; P 0 to 0.03; and S 0 to 0.03 balance Fe; and normally occurring impurities. providing a hollow comprising a ferritic FeCrAl-alloy, cold working the hollow into the tube wherein the hollow, during cold working, has a temperature in a range from 90°C to 600°C., annealing the tube in a temperature in 700° C to 1150° C, providing a tube comprising a ferritic FeCrAl-alloy, heating the tube, and straightening and forming the heated tube by stretching wherein the tube is heated prior to the stretching so that the tube during straightening and forming has a temperature in a range from about 100°C to about 1400°C; and wherein the ferritic FeCrAl-alloy comprises in wt-%: Cr 9 to 25; Al 3 to 7; Mo 0 to 5; Y 0.05 to 0.60; Zr 0.01 to 0.30; Hf 0.05 to 0.50; Ta 0.05 to 0.50; Ti 0 to 0.10; C 0.01 to 0.05; N 0.01 to 0.06; O 0.02 to 0.10; Si 0.10 to 3.0; Mn 0.05 to 0.50; P 0 to 0.03; and S 0 to 0.03 balance Fe; and normally occurring impurities.
A process for attaching a modifying agent to a substrate surface wherein said modifying agent is a poly(sulfonyl) azide, the process comprising the steps of: A. Contacting in an open contact zone and under a flow of inert gas a substrate that has a BET surface area of less than one square meter per gram (m 2 /g) with a modifying agent, binding agent and a liquid mixing agent to form a substrate mixture, wherein the amount of binding agent is greater than 5% by weight of the modifying agent, and wherein the binding agent is not a phosphite-containing compound or a compound containing a phosphorus in the +3 oxidation state; B. Closing the contact zone and stopping the flow of inert gas to the contact zone; C. Agitating the substrate mixture under the inert gas in the closed contact zone to commence evaporation of the liquid mixing agent; D. Reducing the temperature and pressure of the closed contact zone while continuing to agitate the substrate mixture; and E. Completing the substantial evaporation of the mixing agent from the substrate mixture by opening the contact zone and initiating an inert gas flow while continuing agitation of the substrate mixture and maintaining a reduced pressure. A. Contacting in an open contact zone and under a flow of inert gas a substrate that has a BET surface area of less than one square meter per gram (m 2 /g) with a modifying agent, binding agent and a liquid mixing agent to form a substrate mixture, wherein the amount of binding agent is greater than 5% by weight of the modifying agent, and wherein the binding agent is not a phosphite-containing compound or a compound containing a phosphorus in the +3 oxidation state; B. Closing the contact zone and stopping the flow of inert gas to the contact zone; C. Agitating the substrate mixture under the inert gas in the closed contact zone to commence evaporation of the liquid mixing agent; D. Reducing the temperature and pressure of the closed contact zone while continuing to agitate the substrate mixture; and E. Completing the substantial evaporation of the mixing agent from the substrate mixture by opening the contact zone and initiating an inert gas flow while continuing agitation of the substrate mixture and maintaining a reduced pressure.
A welding-type power supply (400; 1400), comprising: a transformer having first and second secondary windings; switching elements (410a, 410b, 410c, 410d; 1410a, 1410b, 1410c, 1410d) configured to control current flow from the first and second secondary windings to an output (414, 416); and characterised in that the welding-type power supply comprises a control circuit configured to control the switching elements to selectively output a positive output voltage or a negative output voltage without a separate rectifier stage by; selecting, based on a commanded output voltage polarity, a first subset of the switching elements and controlling the first subset of switching elements to couple the first and second secondary windings; and selecting, based on an input voltage polarity, a second subset of the switching elements to perform rectification, wherein the second subset of the switching elements is different that the first subset of the switching elements. a transformer having first and second secondary windings; switching elements (410a, 410b, 410c, 410d; 1410a, 1410b, 1410c, 1410d) configured to control current flow from the first and second secondary windings to an output (414, 416); and characterised in that the welding-type power supply comprises a control circuit configured to control the switching elements to selectively output a positive output voltage or a negative output voltage without a separate rectifier stage by; selecting, based on a commanded output voltage polarity, a first subset of the switching elements and controlling the first subset of switching elements to couple the first and second secondary windings; and selecting, based on an input voltage polarity, a second subset of the switching elements to perform rectification, wherein the second subset of the switching elements is different that the first subset of the switching elements.
A system, comprising: a wire spool comprising a core having a core diameter and wire wound around the core and having a wire diameter (108, 110), wherein an outer diameter of the wire spool is defined by a sum of the core diameter and the wire diameter (108, 110); and a sensing system comprising a sensor component (114; 118; 122; 134) disposed on the wire spool and/or a wire spool hub, wherein the sensing system is configured to acquire data corresponding to a parameter indicative of the outer diameter of the wire spool, further comprising a control system configured to receive the data from the sensing system and to compute the outer diameter of the wire spool based on the received data, characterized in that the control system is configured to utilize the received data to determine one or more operating parameter adjustments of a dual motor wire feeding system. a wire spool comprising a core having a core diameter and wire wound around the core and having a wire diameter (108, 110), wherein an outer diameter of the wire spool is defined by a sum of the core diameter and the wire diameter (108, 110); and a sensing system comprising a sensor component (114; 118; 122; 134) disposed on the wire spool and/or a wire spool hub, wherein the sensing system is configured to acquire data corresponding to a parameter indicative of the outer diameter of the wire spool, further comprising a control system configured to receive the data from the sensing system and to compute the outer diameter of the wire spool based on the received data, characterized in that the control system is configured to utilize the received data to determine one or more operating parameter adjustments of a dual motor wire feeding system.
A multifunctional device for measuring the flow rate of a liquid, in particular beverage, comprising an ultrasonic flow meter comprising a body with a measuring tube for passing the measured liquid, which is provided with an ultrasonic transmitter and receiver (1, 2) at each of the two opposite front ends of the measuring tube, characterized in that it further comprises at least a white light emitting diode, a sensor of red, green, blue, and white light components, a microprocessor, and a memory unit comprising a definition table of the red, green, blue, and white light components of reference liquids, wherein each reference liquid is defined by these colour components, said white light emitting diode is arranged on one side of the measuring tube of the flow meter, while the sensor of red, green, blue, and white light components is arranged on the opposite side of the measuring tube, wherein the body with the measuring tube is translucent at least in its portion to allow light to pass from the white light emitting diode to the sensor of red, green, blue, and white light components, wherein the microprocessor is connected to the white light emitting diode and the sensor of red, green, blue, and white light components, and is programmed to calibrate data output from the sensor of red, green, blue, and white light components depending on parameters of known reference liquids, and furthermore, this microprocessor is programmed to transmit the calibrated data from the sensor of red, green, blue, and white light components to a superordinate evaluation unit. it further comprises at least a white light emitting diode, a sensor of red, green, blue, and white light components, a microprocessor, and a memory unit comprising a definition table of the red, green, blue, and white light components of reference liquids, wherein each reference liquid is defined by these colour components, said white light emitting diode is arranged on one side of the measuring tube of the flow meter, while the sensor of red, green, blue, and white light components is arranged on the opposite side of the measuring tube, wherein the body with the measuring tube is translucent at least in its portion to allow light to pass from the white light emitting diode to the sensor of red, green, blue, and white light components, wherein the microprocessor is connected to the white light emitting diode and the sensor of red, green, blue, and white light components, and is programmed to calibrate data output from the sensor of red, green, blue, and white light components depending on parameters of known reference liquids, and furthermore, this microprocessor is programmed to transmit the calibrated data from the sensor of red, green, blue, and white light components to a superordinate evaluation unit.
A bone particle composition, comprising: a biologically-resorbable cement; and a plurality of processed bone particles, including a first portion of processed bone particles having a shape configured to interconnect with one another, each of the bone particles of the first portion being cut from an intact bone or portion thereof, and each of the bone particles of the first portion having greater dimensions at end portions of each of the bone particles relative to one or more center portions of each of the bone particles, and a second portion of processed bone particles comprising ground bone particles having an irregular shape. a biologically-resorbable cement; and a plurality of processed bone particles, including a first portion of processed bone particles having a shape configured to interconnect with one another, each of the bone particles of the first portion being cut from an intact bone or portion thereof, and each of the bone particles of the first portion having greater dimensions at end portions of each of the bone particles relative to one or more center portions of each of the bone particles, and a second portion of processed bone particles comprising ground bone particles having an irregular shape. a first portion of processed bone particles having a shape configured to interconnect with one another, each of the bone particles of the first portion being cut from an intact bone or portion thereof, and each of the bone particles of the first portion having greater dimensions at end portions of each of the bone particles relative to one or more center portions of each of the bone particles, and a second portion of processed bone particles comprising ground bone particles having an irregular shape.
Lighting device comprising a support, at least one electronic circuit board upon which light-emitting diodes are installed and which is positioned against the support, a cover (20, 42, 150) which covers the electronic circuit board, the support being a metal panel comprised of two flat plates (138, 138') and a cellular structure which is interposed between the two flat plates (138, 138'), the cellular structure comprising a plurality of ducts, each of which is delimited by at least one wall perpendicular to the plates (138, 138'), and the electronic circuit board being positioned against a first surface of one of the two plates, a second surface of said plate, which is opposite the first surface, being in contact with the cellular structure, characterized in that a power supply cable is connected to the electronic circuit board, a part of the electric cable being arranged between the two plates (138, 138'), and in that the panel comprises a peripheral seal which covers the entire peripheral edge of the panel.
A method for a three-dimensional video encoding or decoding system, the method comprising: receiving input data associated with a motion vector or disparity vector of a current block; using a unified derivation method to derive a unified disparity vector from depth data of an associated depth block corresponding to the current block, wherein the unified derivation method generates the unified disparity vector from a subset of depth samples in the associated depth block, and the unified derivation method is applied in Inter mode, Skip mode, or Direct mode when one disparity vector derived from depth data is required for encoding or decoding, and the unified derivation is shared by the Inter mode, Skip mode and Direct mode such that when the current block is coded in any of the Inter mode, Skip mode or Direct mode, the same derivation method is used to derive the unified disparity vector; and encoding or decoding the input data using said unified disparity vector in the Inter mode, Skip mode, or Direct mode, characterized in that the unified disparity vector corresponds to a value obtained from four corner samples in the associated depth block, said obtained value corresponding to a maximum value. receiving input data associated with a motion vector or disparity vector of a current block; using a unified derivation method to derive a unified disparity vector from depth data of an associated depth block corresponding to the current block, wherein the unified derivation method generates the unified disparity vector from a subset of depth samples in the associated depth block, and the unified derivation method is applied in Inter mode, Skip mode, or Direct mode when one disparity vector derived from depth data is required for encoding or decoding, and the unified derivation is shared by the Inter mode, Skip mode and Direct mode such that when the current block is coded in any of the Inter mode, Skip mode or Direct mode, the same derivation method is used to derive the unified disparity vector; and encoding or decoding the input data using said unified disparity vector in the Inter mode, Skip mode, or Direct mode, characterized in that the unified disparity vector corresponds to a value obtained from four corner samples in the associated depth block, said obtained value corresponding to a maximum value.
A multicomponent composition comprising a first phase comprising at least one surfactant chosen from anionic surfactants, amphoteric surfactants, zwitterionic surfactants, cationic surfactants, and nonionic surfactants, wherein an amount of nonionic surfactant is less than 75% by weight of all surfactant in the first phase, and a second phase comprising fragrance, wherein the first phase comprises at least 75% by weight of all surfactant in the first phase and the second phase, wherein the second phase comprises at least 75% by weight of all fragrance in the first phase and second phase, wherein the composition is an aqueous, liquid composition, and wherein the composition includes an anionic surfactant and optionally, an amphoteric and/or zwitterionic surfactant. wherein the composition is an aqueous, liquid composition, and wherein the composition includes an anionic surfactant and optionally, an amphoteric and/or zwitterionic surfactant.
A filter apparatus (10, 200) comprising: a drum (20, 210) that is supported on a rotatable shaft having a centre axis (X-X), a number of filter plates (25, 230) being attached to the drum (20, 210), said filter plates forming a filter surface (20A, 220A), a scraper blade for scraping a cake from the filter surface (20A, 220A), an angular position sensor for measuring the angular (φ) position of the drum (20, 210), characterized in that the filter apparatus (10, 200) further comprises: an actuator for continuously adjusting the distance of a tip of the scraper blade from the filter surface based on the predetermined topology of the filter surface at each angular (φ) position of the drum. a drum (20, 210) that is supported on a rotatable shaft having a centre axis (X-X), a number of filter plates (25, 230) being attached to the drum (20, 210), said filter plates forming a filter surface (20A, 220A), a scraper blade for scraping a cake from the filter surface (20A, 220A), an angular position sensor for measuring the angular (φ) position of the drum (20, 210), characterized in that the filter apparatus (10, 200) further comprises: an actuator for continuously adjusting the distance of a tip of the scraper blade from the filter surface based on the predetermined topology of the filter surface at each angular (φ) position of the drum. an actuator for continuously adjusting the distance of a tip of the scraper blade from the filter surface based on the predetermined topology of the filter surface at each angular (φ) position of the drum.