mhurhangee/ep-ind-claims huggingface dataset:
A vital signs sensor comprising: an identifier storage device comprising a memory configured to store an identifier of a subject; and a signal processing device configured to acquire a vital sign from the subject, to correlate the vital sign with the identifier and to wirelessly transmit the resulting signal, wherein the identifier storage device has a structure where the identifier storage device is attachable to and detachable from the signal processing device, and writing of an identifier in the vital signs sensor by an external device is enabled only in a state where the signal processing device is attached to the identifier storage device. an identifier storage device comprising a memory configured to store an identifier of a subject; and a signal processing device configured to acquire a vital sign from the subject, to correlate the vital sign with the identifier and to wirelessly transmit the resulting signal, wherein the identifier storage device has a structure where the identifier storage device is attachable to and detachable from the signal processing device, and writing of an identifier in the vital signs sensor by an external device is enabled only in a state where the signal processing device is attached to the identifier storage device.
Water-tight zipper having two slides (7, 8) consisting of two zipper halves, which are each formed by a zipper ribbon and zipper teeth and which can be closed or separated by means of the slides, characterized in that in the closed state of the zipper the slides (7, 8) abut sealingly against one or more at least partially common sealing elements with one or more sealing lips and that a contact point which forms an elevation, which is configured in a sealing manner and which is connected to at least one sealing lip, is arranged between the slides (7, 8), wherein the slides (7, 8) have a contour adapted to the elevation and in the closed state of the zipper the contour abuts in a clamping or pressing manner against the elevation.
A method for growing aquatic organisms capable of photosynthesis within a controlled aqueous environment, wherein within said controlled environment a plurality of light sources is arranged, and wherein the inside of said controlled environment is configured such that light from a source outside said controlled environment does not enter said controlled environment; wherein the method comprises controlling said light sources to emit light pulses, exposing the organisms in said controlled environment to said light pulses, and wherein periods of light are interrupted by periods of complete darkness; characterized in that: said light sources are light emitting diodes (LEDs); in that the dark periods have a length in the order of milliseconds; and in that the length of the light pulses is from 999 nanoseconds to 1 picosecond. wherein the method comprises controlling said light sources to emit light pulses, exposing the organisms in said controlled environment to said light pulses, and wherein periods of light are interrupted by periods of complete darkness; characterized in that: said light sources are light emitting diodes (LEDs); in that the dark periods have a length in the order of milliseconds; and in that the length of the light pulses is from 999 nanoseconds to 1 picosecond. said light sources are light emitting diodes (LEDs); in that the dark periods have a length in the order of milliseconds; and in that the length of the light pulses is from 999 nanoseconds to 1 picosecond.
Process for continuous manufacturing of biomolecules comprising the following steps: - feeding a reaction chamber with products from feed tanks, said products forming in the reaction chamber a reaction phase, - manufacturing said biomolecules from said reaction phase in the reaction chamber, characterized in that said process further comprises the steps of: - storing an immiscible phase which is not miscible with the reaction phase in a scale tank in fluid communication to the reaction chamber, - controlling with a monitoring and control unit the injection flow rate of the immiscible phase into the reaction chamber in order to maintain a certain filling level of the reaction chamber according to the amount of reaction phase to be injected into the reaction chamber to manufacture a certain amount of biomolecules, so that the lower the amount of reaction phase to be injected into the reaction chamber and the higher the amount of immiscible phase to be injected. - feeding a reaction chamber with products from feed tanks, said products forming in the reaction chamber a reaction phase, - manufacturing said biomolecules from said reaction phase in the reaction chamber, characterized in that said process further comprises the steps of: - storing an immiscible phase which is not miscible with the reaction phase in a scale tank in fluid communication to the reaction chamber, - controlling with a monitoring and control unit the injection flow rate of the immiscible phase into the reaction chamber in order to maintain a certain filling level of the reaction chamber according to the amount of reaction phase to be injected into the reaction chamber to manufacture a certain amount of biomolecules, so that the lower the amount of reaction phase to be injected into the reaction chamber and the higher the amount of immiscible phase to be injected.
A user equipment (111, 112) supporting multi-band signaling in a network, the user equipment (111, 112) comprising transceiver and processing circuitry configured to: receive, in multiple frequency band indicators, MFBI, signaling, an MFBI list that includes elements that correspond to E-UTRA frequency bands on which neighboring LTE cells are operated, wherein each element of the MFBI list corresponds to an entry in one of a E-UTRA frequency and priority list and an E-UTRA frequency and priority extension list, and connect to a neighboring LTE cell using information in an element of the received MFBI list, wherein each entry in the E-UTRA frequency and priority list and the E-UTRA frequency and priority extension list defines an evolved absolute radio frequency channel number, EARFCN, value and a priority value for the respective EARFCN. receive, in multiple frequency band indicators, MFBI, signaling, an MFBI list that includes elements that correspond to E-UTRA frequency bands on which neighboring LTE cells are operated, wherein each element of the MFBI list corresponds to an entry in one of a E-UTRA frequency and priority list and an E-UTRA frequency and priority extension list, and connect to a neighboring LTE cell using information in an element of the received MFBI list, wherein each entry in the E-UTRA frequency and priority list and the E-UTRA frequency and priority extension list defines an evolved absolute radio frequency channel number, EARFCN, value and a priority value for the respective EARFCN.
An exhaust aftertreatment system for a combustion engine, said system comprising, - an outer casing comprising at least one exhaust gas inlet and at least one exhaust gas outlet, - at least one catalyst (6, 6') being located in an inner volume of the outer casing, - wherein the system is configured such that during use of the system exhaust gas flows from the at least one exhaust gas inlet at an inlet velocity, through the at least one catalyst (6, 6') at a catalyst velocity, into the inner volume outside the at least one catalyst (6, 6') and to the at least one exhaust gas outlet, and further configured such that the exhaust gas flows in the inner volume outside the at least one catalyst (6, 6') through at least one cross sectional area being defined and limited by at least a perimeter surface (61, 61') of the at least one catalyst (6, 6') and an inner surface of the outer casing or by at least two catalyst parameter surfaces (61, 61'), characterized in that, - the at least one cross sectional area is sized such that during use of the system the exhaust gas flows through the at least one cross sectional area at a first inner volume velocity being higher than the catalyst velocity, and - wherein the system further comprises at least one sensor for measuring at least one parameter being related to the exhaust gas, said at least one sensor being located in the inner volume at a location where an exhaust gas flow velocity is higher than the catalyst velocity. - an outer casing comprising at least one exhaust gas inlet and at least one exhaust gas outlet, - at least one catalyst (6, 6') being located in an inner volume of the outer casing, - wherein the system is configured such that during use of the system exhaust gas flows from the at least one exhaust gas inlet at an inlet velocity, through the at least one catalyst (6, 6') at a catalyst velocity, into the inner volume outside the at least one catalyst (6, 6') and to the at least one exhaust gas outlet, and further configured such that the exhaust gas flows in the inner volume outside the at least one catalyst (6, 6') through at least one cross sectional area being defined and limited by at least a perimeter surface (61, 61') of the at least one catalyst (6, 6') and an inner surface of the outer casing or by at least two catalyst parameter surfaces (61, 61'), - the at least one cross sectional area is sized such that during use of the system the exhaust gas flows through the at least one cross sectional area at a first inner volume velocity being higher than the catalyst velocity, and - wherein the system further comprises at least one sensor for measuring at least one parameter being related to the exhaust gas, said at least one sensor being located in the inner volume at a location where an exhaust gas flow velocity is higher than the catalyst velocity.
Measuring tube for use in a measuring system designed to determine and/or monitor the flow of a medium through the measuring tube, with a measuring tube axis and with a first ultrasonic transducer support designed to hold at least a first electromechanical transducer element, and at least an additional, second ultrasonic transducer support designed to hold at least a second electromechanical transducer element, and with a measuring tube inlet and a measuring tube outlet, wherein said measuring tube inlet has a measuring tube inlet axis, said measuring tube inlet axis having an angle σ unequal to 90° in relation to the measuring tube axis, and wherein said measuring tube outlet has a measuring tube outlet axis, said measuring tube outlet axis having an angle β unequal to 90° in relation to the measuring tube axis, wherein the first ultrasonic transducer support is a first coupling element between the first electromechanical transducer element and the medium, and has a first acoustic coupling and/or decoupling surface with a center point, wherein the second ultrasonic transducer support is a second coupling element between the second electromechanical transducer element and the medium, and has a second acoustic coupling and/or decoupling surface with a center point, wherein the first acoustic coupling and/or decoupling surface and the second acoustic coupling and/or decoupling surface are essentially opposite one another in a plane parallel manner, characterized in that the ultrasonic transducer supports (23, 24) are designed in such a way that a connecting line between the centers (27, 28) of the first and the second acoustic coupling and/or decoupling surface (16, 17) is at an angle η in relation to the measuring tube axis and extends on the side of the measuring tube axis on which the measuring tube outlet is located.
A method of controlling a supply of purge gas to reduce leakage past a dynamic seal for sealing a vacuum chamber, the dynamic seal comprising at least a first sealing member having opposing first and second sides (12-1A, 12-1B), the method comprising: determine a first operating pressure on the first side of the first sealing member; determine a second operating pressure on the second side of the first sealing member; determining a pressure differential (ΔP) between the first operating pressure on the first side of the first sealing member and the second operating pressure on the second side of the first sealing member; controlling the supply of purge gas to the second side of the first sealing member in dependence on the determined pressure differential (ΔP); determine a rate of change (dP1/dt) of the first operating pressure; and identify when the determined rate of change (dP1/dt) is less than a predefined rate of change threshold; wherein the method comprises reducing or inhibiting the supply of purge gas when the determined rate of change (dP1/dt) of the first operating pressure is less than the predefined rate of change threshold. determine a first operating pressure on the first side of the first sealing member; determine a second operating pressure on the second side of the first sealing member; determining a pressure differential (ΔP) between the first operating pressure on the first side of the first sealing member and the second operating pressure on the second side of the first sealing member; controlling the supply of purge gas to the second side of the first sealing member in dependence on the determined pressure differential (ΔP); determine a rate of change (dP1/dt) of the first operating pressure; and identify when the determined rate of change (dP1/dt) is less than a predefined rate of change threshold; wherein the method comprises reducing or inhibiting the supply of purge gas when the determined rate of change (dP1/dt) of the first operating pressure is less than the predefined rate of change threshold.
An adhesive composition which comprises (a) a 2-cyanoacrylic acid ester, (b) a polymer having a hydrolyzable silyl group, (c) an elastomer, and (d) an acid catalyst, in which the contents of the components (b), (c), and (d) are from 5 to 200 parts by mass, from 5 to 50 parts by mass, and from 0. 0005 to 0.5 parts by mass, respectively, relative to 100 parts by mass of the component (a), and wherein the main chain chemical structure of the polymer (b) having a hydrolyzable silyl group is at least one polymer selected from the group consisting of oxyalkylene polymer, vinyl polymer, polyester polymer, polyurethane polymer, and polycarbonate polymer.
A display module, comprising: a frame comprising a border and a support frame installed in the border; multiple display unit boards assembled and installed on the frame to a display surface; a switch board electrically connected to the multiple display unit boards; and a main receiving card, wherein each said display unit board comprises: a circuit board having a front side installed on the border and the support frame, and a back side; and multiple pixel points installed on the front side and each including at least one LED chip; the support frame is of a criss-cross structure and coordinates with the border to form multiple installation frames, and a periphery of the circuit board of each said display unit board is bonded to one said installation frame; characterized in that the switch board is installed on a side, away from the display unit boards, of the support frame; the main receiving card is installed on a side, away from the support frame, of the switch board; and the electrical connection between the switch board and the multiple display unit boards avoid the support frame. a frame comprising a border and a support frame installed in the border; multiple display unit boards assembled and installed on the frame to a display surface; a switch board electrically connected to the multiple display unit boards; and a main receiving card, wherein each said display unit board comprises: a circuit board having a front side installed on the border and the support frame, and a back side; and multiple pixel points installed on the front side and each including at least one LED chip; the support frame is of a criss-cross structure and coordinates with the border to form multiple installation frames, and a periphery of the circuit board of each said display unit board is bonded to one said installation frame; characterized in that the switch board is installed on a side, away from the display unit boards, of the support frame; the main receiving card is installed on a side, away from the support frame, of the switch board; and the electrical connection between the switch board and the multiple display unit boards avoid the support frame. a circuit board having a front side installed on the border and the support frame, and a back side; and multiple pixel points installed on the front side and each including at least one LED chip; the support frame is of a criss-cross structure and coordinates with the border to form multiple installation frames, and a periphery of the circuit board of each said display unit board is bonded to one said installation frame; characterized in that the switch board is installed on a side, away from the display unit boards, of the support frame; the main receiving card is installed on a side, away from the support frame, of the switch board; and the electrical connection between the switch board and the multiple display unit boards avoid the support frame.
An iterative image reconstruction method of reconstructing an image using a successive approximation method, comprising: performing image reconstruction with the successive approximation method using state variables which depend on the number of iterations or a pixel position to determine update conditions for obtaining a reconstructed image, said image reconstruction being repeatedly performed until a convergence condition is satisfied; storing the state variables at an end of the image reconstruction; outputting the reconstructed image after the convergence condition is satisfied; and resuming performing image reconstruction when it is judged that an image quality of the reconstructed image is insufficient, wherein the performing image reconstruction further comprises: judging whether or not the reconstruction processing is the first time; when the reconstruction processing is the first time, initializing the state variables and then performing image reconstruction; when the reconstruction processing is not the first time and when the reconstruction processing is resumed, reading the stored state variables and then performing image reconstruction. performing image reconstruction with the successive approximation method using state variables which depend on the number of iterations or a pixel position to determine update conditions for obtaining a reconstructed image, said image reconstruction being repeatedly performed until a convergence condition is satisfied; storing the state variables at an end of the image reconstruction; outputting the reconstructed image after the convergence condition is satisfied; and resuming performing image reconstruction when it is judged that an image quality of the reconstructed image is insufficient, wherein the performing image reconstruction further comprises: judging whether or not the reconstruction processing is the first time; when the reconstruction processing is the first time, initializing the state variables and then performing image reconstruction; when the reconstruction processing is not the first time and when the reconstruction processing is resumed, reading the stored state variables and then performing image reconstruction. judging whether or not the reconstruction processing is the first time; when the reconstruction processing is the first time, initializing the state variables and then performing image reconstruction; when the reconstruction processing is not the first time and when the reconstruction processing is resumed, reading the stored state variables and then performing image reconstruction.
A heating chamber for an aerosol generation device, the heating chamber comprising: a first open end; a base; and a side wall between the open end and the base; wherein the base is connected to the side wall and provides structural support to the side wall; and wherein the side wall has a first thickness and the base has a second thickness greater than the first thickness, and wherein the side wall and the base are formed from the same material. a first open end; a base; and a side wall between the open end and the base; wherein the base is connected to the side wall and provides structural support to the side wall; and wherein the side wall has a first thickness and the base has a second thickness greater than the first thickness, and wherein the side wall and the base are formed from the same material.
Motor vehicle comprising at least one aerodynamic deflector device comprising a deflector member positioned at the front part of said vehicle, and said member comprising a deflector blade having a surface able to deflect streams of air passing beneath the vehicle when the latter is running in a forwards direction, and which is mounted such as to be able to move, making it able to pass reversibly from a position extending towards the front of the vehicle and in the longitudinal direction of the vehicle to an aerodynamically active position as a function of the speed of the vehicle travelling in a forwards direction, characterized in that said device comprises guide means for guiding an air flow arriving from the front of the vehicle towards said deflector blade, at least when said deflector blade is in the position extending towards the front of the vehicle and in the longitudinal direction of the vehicle, in the inactive position, and in that said guide means for guiding the air flow arriving from the front of the vehicle towards said deflector blade comprise at least one air inlet orifice formed by an upper orifice that allows an air flow arriving at the front of the vehicle to enter, and at least one air outlet orifice formed by a lower orifice opening above said blade in the position extending towards the front of the vehicle and in the longitudinal direction of the vehicle.
A method for allowing distributed running of an application between a device and a server connected via a network, the method comprising the following steps carried out by the device: - obtaining a device profile including resource capacity characteristics of said device; - obtaining an application profile including resource consumption characteristics of said application; - obtaining device metrics relating to real-time resource usage with respect to said device; real time resource usage being considered as device dynamic data; - obtaining offload rules defining conditions under which an application is to be run at least in part on a server and/or on a device, the conditions involving device resource capacity, application resource consumption and device real-time resource usage; - making a decision by means of an inference engine of distributing running of said application at least in part on said server and/or on said device, by evaluating the offload rules applied to said device profile, application profile and device metrics. - obtaining a device profile including resource capacity characteristics of said device; - obtaining an application profile including resource consumption characteristics of said application; - obtaining device metrics relating to real-time resource usage with respect to said device; real time resource usage being considered as device dynamic data; - obtaining offload rules defining conditions under which an application is to be run at least in part on a server and/or on a device, the conditions involving device resource capacity, application resource consumption and device real-time resource usage; - making a decision by means of an inference engine of distributing running of said application at least in part on said server and/or on said device, by evaluating the offload rules applied to said device profile, application profile and device metrics.