mhurhangee/ep-ind-claims huggingface dataset:
A Bluetooth connection control method for multiple playing devices (1, 2, 3, 4), comprising: sending by a playing device a broadcast message after the playing device is turned on, wherein the broadcast message is configured to inquire whether Bluetooth function is enabled in other playing devices within the same music playing system of the playing device; detecting by the playing device whether a response returned by the other playing devices according to the broadcast message is received, wherein the response is configured to indicate that a playing device that returned the response has enabled the Bluetooth function; disabling the Bluetooth function of the playing device if the response is received by the playing device; and enabling the Bluetooth function of the playing device if no response is received by the playing device, whereby the playing device can be found by a terminal during a Bluetooth pairing process. sending by a playing device a broadcast message after the playing device is turned on, wherein the broadcast message is configured to inquire whether Bluetooth function is enabled in other playing devices within the same music playing system of the playing device; detecting by the playing device whether a response returned by the other playing devices according to the broadcast message is received, wherein the response is configured to indicate that a playing device that returned the response has enabled the Bluetooth function; disabling the Bluetooth function of the playing device if the response is received by the playing device; and enabling the Bluetooth function of the playing device if no response is received by the playing device, whereby the playing device can be found by a terminal during a Bluetooth pairing process.
Touch-sensitive, illuminable operating panel, comprising a substrate, a plurality of touch elements (6,7,11,12) on a surface of the operating panel, a sensor layer with a plurality of sensor elements, wherein each sensor element is paired with a touch element (6,7,11,12), an illuminating device which is designed to illuminate at least some of the touch elements (6,7,11,12), and a control unit, characterised in that the touch elements (6,7,11,12) have at least two upper buttons O m (6,7) and at least two groups G n (8,9) of lower buttons B x n (11,12), where m, n, x each ≥ 1, wherein the circuitry of each upper button O m (6,7) is paired with at least one group G n (8,9) of lower buttons B x n (11,12) such that when an upper button O m (6,7) is touched, the lower buttons B x n (11,12) belonging to the corresponding group G n (8,9) are activated.
A system for supplying air under the ceiling of a room, the system comprising a pair of air inlet openings (10, 11) arranged side by side at a horizontal distance (d) from each other, wherein the horizontal distance is at least two times the largest horizontal dimension of the inlet openings (10,11), each air inlet opening (10, 11) being configured to supply an air stream into the room in an air stream direction having a direction component parallel to the ceiling, wherein the flow direction of air streams leaving the pair of air inlet openings (10, 11) can be controlled to assume, by a mechanical arrangement, a first configuration where the two air inlet openings (10, 11) direct the supplied air streams toward the ceiling and to the sides to create two distinct jets which spread out across the ceiling in a radial pattern, forming a radial wall jet, where the supplied pair of air streams have first air stream directions spanning a first span angle and form a first angle with the ceiling, or a second configuration wherein the two air inlet openings (10, 11) direct the supplied air streams straight ahead, such that the air streams are horizontal and parallel to the ceiling, wherein the air inlet openings (10, 11) are arranged such that the two air streams are attracted to each other to merge into a single circular jet, where the supplied pair of air streams have second air stream directions spanning a second span angle and form a second angle with the ceiling, wherein the first span angle is different from the second span angle, and the first angle with the ceiling is different from the second angle with the ceiling. a first configuration where the two air inlet openings (10, 11) direct the supplied air streams toward the ceiling and to the sides to create two distinct jets which spread out across the ceiling in a radial pattern, forming a radial wall jet, where the supplied pair of air streams have first air stream directions spanning a first span angle and form a first angle with the ceiling, or a second configuration wherein the two air inlet openings (10, 11) direct the supplied air streams straight ahead, such that the air streams are horizontal and parallel to the ceiling, wherein the air inlet openings (10, 11) are arranged such that the two air streams are attracted to each other to merge into a single circular jet, where the supplied pair of air streams have second air stream directions spanning a second span angle and form a second angle with the ceiling, wherein the first span angle is different from the second span angle, and the first angle with the ceiling is different from the second angle with the ceiling.
Heat exchanger tube, of the type obtained by folding, comprising a wall defining a part of base and end legs turned towards the part of base, said tube comprising at least one corrugated disrupter (17, 40') with folds, introduced into said tube, said tube comprising brazing coatings deposited either entirely or partially on two corrugated faces of the disrupter and/or on the internal face of the folded wall forming the tube, and some of said folds (22', 36'), called reinforcing folds, of the disrupter or disrupters (17, 40') being provided opposite said end legs, so that said reinforcing fold or folds form, with said legs and said part of base, a connecting reinforcement between said legs and said part of base, the lateral ends terminating the end legs being at a distance from said part of base, and in said tube there being housed a double disrupter with two corrugated networks of folds, linked to one another by a flat central part which is engaged in a gap provided between the end legs and the part of base of the wall, the folds of connecting reinforcement being derived from said central part of the disrupter, the reinforcing folds being bent at outer edges of the ends and being formed partly by said flat central part and by lateral extensions deriving therefrom extending towards a top part of the wall of the tube close to the respective end legs and gradually separating from the end legs and the inclination given to these lateral extensions of the folds of link reinforcement prefigures the form of the corrugations of the two corrugated networks of folds, which is of the trapezoidal crenulation type, such that the reinforcing folds ensure the rigidifying of the folded tube via brazing zones, on the one hand, at the corner formed by each edge between the end leg and said inclined extension and, on the other hand, at the corner between said inclined extension and said part of base, and via significant brazings tending to be deposited in large quantity, by capillarity effect, along the end folds added against the end legs and the part of base of the tube.
A method for producing a tear line by material removal on a planar workpiece, which has a visible side (4.2) and a reverse side (4.1) opposite said visible side (4.2), wherein a laser generator generates a pulsed laser beam with laser pulses (1.1) of an energy determined by a pulse amplitude and a pulse length, which are introduced sequentially, in machining cycles repeated several times, along a predetermined contour for the tear line at a respective removal location (a 1,..., a n) from the reverse side (4.1) and wherein material removal is performed for each removal location (a 1,..., a n) to a respective predetermined residual wall thickness, which may even be zero, wherein upon reaching a deactivation criterion correlating with the respective predetermined residual wall thickness, the introduction of the laser pulses (1.1) is terminated in a space-resolved manner with respect to the removal locations (a 1,..., a n) and for each machining cycle a measurement signal curve is generated, which is formed by measurement signals (M a) via the removal locations (a 1,..., a n), which are each caused by detection of a transmitting part of the pulse amplitude of one of the laser pulses (1.1) by means of at least one sensor (3 1,..., 3 m) of an arrangement of sensors for each removal location (a 1,..., a n), characterised in that the machining cycles are temporally preceded by a method step for generating and storing a reference signal curve (f(R a)), which is formed by the reference signals (R a) caused by the pulse amplitude via the removal locations (a 1,..., a n), with no planar workpiece being arranged, in this method step, between the laser generator and the arrangement of sensors, the pulse amplitude of the laser pulses (1.1) being kept constant in the temporally preceding method step as well as the machining cycles, and the achievement of a respective predetermined percentage of the reference signal (R a) or of a predetermined distance from the reference signal (R a) by the measurement signal (M a) being used as the space-resolved deactivation criterion for each removal location (a 1,..., a n).
A method of fabricating thin film electrochemical devices, comprising: depositing device layers including electrodes (303, 305) and corresponding current collectors (302, 306), and an electrolyte layer on a substrate; and directly patterning at least one of said device layers by a laser light pattern generated by a beam from a laser incident on a diffractive optical element, said laser light pattern directly patterning at least an entire die in a single laser shot. depositing device layers including electrodes (303, 305) and corresponding current collectors (302, 306), and an electrolyte layer on a substrate; and directly patterning at least one of said device layers by a laser light pattern generated by a beam from a laser incident on a diffractive optical element, said laser light pattern directly patterning at least an entire die in a single laser shot.
Device for estimating the operating time of a motor vehicle in autonomous mode for at least one route between a departure point and an arrival point, characterized in that the estimating device is connected to an identifying element and to an element for characterizing the portions of roads (PC m) approved for the operation of the vehicle in autonomous mode, along said at least one route, and in that the estimating device includes a unit for calculating the time during which the vehicle is eligible to operate in autonomous mode depending on the characterization of approved portions of road (PC m).
An embolic coil comprising: an elongated core element formed of a shape memory material treated to define memorized secondary coil shape; an elongated outer element wound around the elongated core element to define a primary coil shape of the embolic coil; and a plurality of fibers extending from the embolic coil. an elongated core element formed of a shape memory material treated to define memorized secondary coil shape; an elongated outer element wound around the elongated core element to define a primary coil shape of the embolic coil; and a plurality of fibers extending from the embolic coil.
A cold warehouse, comprising: a plurality of storage positions for storing chilled goods, and a cooling apparatus for cooling the air in the cold warehouse, and one or more mobile blower modules without own cooling unit, which are positioned in the cold warehouse, each mobile blower module being electrically driven, wherein the dimensions of the storage positions are such that they can each accommodate one pallet with chilled goods, wherein several such storage positions of the same size are located next to one another, and each blower module is matched to the dimensions of the storage positions and can selectively be positioned on one of the storage positions, so as to subject, from one storage position, at least one neighbouring storage position to an air stream, for which air within the cold warehouse is sucked in from the surroundings of the storage position of the respective mobile blower module. a plurality of storage positions for storing chilled goods, and a cooling apparatus for cooling the air in the cold warehouse, and one or more mobile blower modules without own cooling unit, which are positioned in the cold warehouse, each mobile blower module being electrically driven, wherein the dimensions of the storage positions are such that they can each accommodate one pallet with chilled goods, wherein several such storage positions of the same size are located next to one another, and each blower module is matched to the dimensions of the storage positions and can selectively be positioned on one of the storage positions, so as to subject, from one storage position, at least one neighbouring storage position to an air stream, for which air within the cold warehouse is sucked in from the surroundings of the storage position of the respective mobile blower module.
Method for printing non-absorbent substrates with a water-based ink, in which method in each case ink droplets are applied to the respective substrate, in which method the ink is applied to the relevant substrate by way of at least one inkjet print head, in which method substrates are used which in each case have a surface tension of less than 45 mN/m in air at a temperature of 20°C, in which method, prior to the application of the ink droplets, the surface tension of the substrates to be printed is increased in each case to a value of at least 45 mN/m, in which method the ink droplets are only afterwards applied to the respective substrate which has the increased surface tension, characterized in that the applied ink droplets are dried by way of an input of heat and/or an exposure to heat, in each case with a duration of action of less than 0.2 seconds, within only a single second after the printing of the relevant substrate, wherein an ink which has a water content of at least 70% is used, wherein the water contained as solvent in the ink is evaporated from the ink droplets applied to the relevant substrate, by way of the input of heat and/or the exposure to heat, in each case to a residual moisture content of less than 25% of the original water content.
An optical component adjustment mechanism for rotatably supporting an optical component around a predetermined axis, comprising: an optical component holder including a support frame to support the optical component, and first and second rotary salients (22, 23) projecting outside from the support frame in the direction of the predetermined axis; a holder support frame for rotatably supporting the first and second rotary salients (22, 23); and a fixing member (28, 34, 36, 37, 40) for fixing a position of rotation of the optical component holder, wherein the holder support frame includes: an opening for inserting the optical component holder; first and second support members (31a, 31b) provided on two sides of the opening, characterized in that wherein a first insertion groove, with which the first rotary salient can rotatably engage, is provided in the first support member; and wherein a second insertion groove, with which the second rotary salient can rotatably engage, is provided in the second support member (31 b). an optical component holder including a support frame to support the optical component, and first and second rotary salients (22, 23) projecting outside from the support frame in the direction of the predetermined axis; a holder support frame for rotatably supporting the first and second rotary salients (22, 23); and a fixing member (28, 34, 36, 37, 40) for fixing a position of rotation of the optical component holder, wherein the holder support frame includes: an opening for inserting the optical component holder; first and second support members (31a, 31b) provided on two sides of the opening, characterized in that an opening for inserting the optical component holder; first and second support members (31a, 31b) provided on two sides of the opening, characterized in that wherein a first insertion groove, with which the first rotary salient can rotatably engage, is provided in the first support member; and wherein a second insertion groove, with which the second rotary salient can rotatably engage, is provided in the second support member (31 b).
A conveyor ride system, comprising: a ride vehicle; and a generally cylindrical conveyor structure comprising a plurality of conveyor beams and a plurality of conveyor grooves, wherein the plurality of conveyor beams and the plurality of conveyor grooves are configured to direct the ride vehicle along a surface of the conveyor structure, wherein the surface of the conveyor structure defines at least a portion of a ride path of the conveyor ride system, and wherein the plurality of conveyor beams is configured to direct the ride vehicle linearly along the surface of the conveyor structure, and wherein a segment of a conveyor beam of the plurality of conveyor beams is configured to move along a conveyor groove of the plurality of conveyor grooves in a circumferential direction about the conveyor structure. a ride vehicle; and a generally cylindrical conveyor structure comprising a plurality of conveyor beams and a plurality of conveyor grooves, wherein the plurality of conveyor beams and the plurality of conveyor grooves are configured to direct the ride vehicle along a surface of the conveyor structure, wherein the surface of the conveyor structure defines at least a portion of a ride path of the conveyor ride system, and wherein the plurality of conveyor beams is configured to direct the ride vehicle linearly along the surface of the conveyor structure, and wherein a segment of a conveyor beam of the plurality of conveyor beams is configured to move along a conveyor groove of the plurality of conveyor grooves in a circumferential direction about the conveyor structure.
A Coherent anti-Stokes Raman Scattering (CARS) microscope, comprising: a light source; a first light dividing part (102, 1601) that divides a light flux of output light from the light source into a first pump light flux and a second pump light flux; a Stokes light source that receives the second pump light flux as an input and outputs a Stokes light flux; a first multiplexing part that superposes the first pump light flux and the Stokes light flux to generate a superposed light flux; a first light-collecting part that collects the superposed light flux in a sample; a first detector (113, 702, 901) that detects Coherent anti-Stokes Raman Scattering (CARS) light generated from the sample, the Coherent anti-Stokes Raman Scattering (CARS) light having a wavelength different from the superposed light flux; a second light-collecting part (111, 109) that guides the Coherent anti-Stokes Raman Scattering (CARS) light to the first detector (113, 702); a second light dividing and multiplexing part (107, 1602) that lets at least one of the first pump light flux and the Strokes light flux partially branch as a reference light flux and that superposes a light flux from the sample and the reference light flux to generate interfering light; and a second detector that detects the interfering light, wherein the Coherent anti-Stokes Raman Scattering (CARS) microscope is adapted that Coherent anti-Stokes Raman Scattering (CARS) light and the interfering light are detected at the same time. a light source; a first light dividing part (102, 1601) that divides a light flux of output light from the light source into a first pump light flux and a second pump light flux; a Stokes light source that receives the second pump light flux as an input and outputs a Stokes light flux; a first multiplexing part that superposes the first pump light flux and the Stokes light flux to generate a superposed light flux; a first light-collecting part that collects the superposed light flux in a sample; a first detector (113, 702, 901) that detects Coherent anti-Stokes Raman Scattering (CARS) light generated from the sample, the Coherent anti-Stokes Raman Scattering (CARS) light having a wavelength different from the superposed light flux; a second light-collecting part (111, 109) that guides the Coherent anti-Stokes Raman Scattering (CARS) light to the first detector (113, 702); a second light dividing and multiplexing part (107, 1602) that lets at least one of the first pump light flux and the Strokes light flux partially branch as a reference light flux and that superposes a light flux from the sample and the reference light flux to generate interfering light; and a second detector that detects the interfering light, wherein the Coherent anti-Stokes Raman Scattering (CARS) microscope is adapted that Coherent anti-Stokes Raman Scattering (CARS) light and the interfering light are detected at the same time.
A method for determining a starting position of a physical downlink shared channel, PDSCH, in a time domain in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving position information; and receiving the PDSCH in a first subframe, wherein when the PDSCH is scheduled by a physical downlink control channel, PDCCH, which is located in the first subframe, the UE determines a starting orthogonal frequency division multiplexing, OFDM, symbol to receive the PDSCH in the first subframe by a physical control format indication channel, PCFICH, and wherein when the PDSCH is not scheduled by the PDCCH which is located in the first subframe, the UE determines a starting OFDM symbol to receive the PDSCH in the first subframe by the position information. receiving position information; and receiving the PDSCH in a first subframe, wherein when the PDSCH is scheduled by a physical downlink control channel, PDCCH, which is located in the first subframe, the UE determines a starting orthogonal frequency division multiplexing, OFDM, symbol to receive the PDSCH in the first subframe by a physical control format indication channel, PCFICH, and wherein when the PDSCH is not scheduled by the PDCCH which is located in the first subframe, the UE determines a starting OFDM symbol to receive the PDSCH in the first subframe by the position information.