mhurhangee/ep-ind-claims huggingface dataset:
A Fabry-Perot interference filter comprising: a substrate that has a first surface; a first layer that has a first mirror portion disposed on the first surface; a second layer that has a second mirror portion facing the first mirror portion via a gap on a side opposite to the substrate with respect to the first mirror portion; and an intermediate layer that defines the gap between the first layer and the second layer, wherein the second layer covers the outer surface of the intermediate layer, characterized in that an outer surface of the intermediate layer is continuously curved such that an edge portion of the intermediate layer on the substrate side is positioned on an outer side of an edge portion of the intermediate layer on the side opposite to the substrate in a direction parallel to the first surface. a substrate that has a first surface; a first layer that has a first mirror portion disposed on the first surface; a second layer that has a second mirror portion facing the first mirror portion via a gap on a side opposite to the substrate with respect to the first mirror portion; and an intermediate layer that defines the gap between the first layer and the second layer, wherein the second layer covers the outer surface of the intermediate layer, characterized in that an outer surface of the intermediate layer is continuously curved such that an edge portion of the intermediate layer on the substrate side is positioned on an outer side of an edge portion of the intermediate layer on the side opposite to the substrate in a direction parallel to the first surface.
A method for coding a depth lookup table, DLT, (201, 211), the depth lookup table comprising depth value information of at least a part of a 3D picture, the method comprising: selecting a reference depth lookup table (203, 213); determining a difference depth lookup table (205, 215) based on a comparison between depth value information of the depth lookup table to be coded (201, 211) and depth value information of the reference depth lookup table (203, 213); and coding depth value information of the difference depth lookup table (205, 215) according to a predetermined coding rule; wherein the difference depth lookup table (205, 215) comprises depth value information occurring in the depth lookup table to be coded (201, 211) and not occurring in the reference depth lookup table (203, 213) and comprises depth value information occurring in the reference depth lookup table (203, 213) and not occurring in the depth lookup table to be coded (201, 211); and wherein the depth value information comprises depth values or indices representing depth values. selecting a reference depth lookup table (203, 213); determining a difference depth lookup table (205, 215) based on a comparison between depth value information of the depth lookup table to be coded (201, 211) and depth value information of the reference depth lookup table (203, 213); and coding depth value information of the difference depth lookup table (205, 215) according to a predetermined coding rule;
A drug delivery device comprising: a biodegradable housing comprising a biodegradable polymeric material comprising a first precursor comprising electrophilic groups and a second precursor comprising nucleophilic groups, said polymeric material comprising a low swelling hydrogel capable of a change in size of from -50% to 50% in weight; and a biodegradable hydrogel within the housing, the biodegradable hydrogel being formed of a first hydrogel precursor comprising electrophilic groups and a second hydrogel precursor comprising nucleophilic groups, said biodegradable hydrogel comprising a highly swellable hydrogel capable of swelling by an amount of from 40% by weight to 600% by weight; wherein at least the biodegradable hydrogel, or both the biodegradable polymeric material and biodegradable hydrogel, comprises a bioactive agent. a biodegradable housing comprising a biodegradable polymeric material comprising a first precursor comprising electrophilic groups and a second precursor comprising nucleophilic groups, said polymeric material comprising a low swelling hydrogel capable of a change in size of from -50% to 50% in weight; and a biodegradable hydrogel within the housing, the biodegradable hydrogel being formed of a first hydrogel precursor comprising electrophilic groups and a second hydrogel precursor comprising nucleophilic groups, said biodegradable hydrogel comprising a highly swellable hydrogel capable of swelling by an amount of from 40% by weight to 600% by weight; wherein at least the biodegradable hydrogel, or both the biodegradable polymeric material and biodegradable hydrogel, comprises a bioactive agent.
Hinge device for appliances and furnishings with end speed damping, for closing or opening, and with pre-determinable angular sectors of elastic opening and/or closure; said hinge device comprising, in an operating condition of assembly to the appliance, a first element fixed to a body of the apparatus and a second element fixed to a door of said apparatus or obtained in said door where said first and second elements are mutually connected by a hinge pivot for rotation of the door around the longitudinal geometric axis of said hinge pivot between end opening and closing conditions; said device comprises a crank means rotatably connected to the first element by means of one of its almost central first rotation pin parallel to the hinge pivot and comprises a connecting rod means having a rotatably end connected to the second element by means of a second rotation pin parallel and spaced from the hinge pivot; said connecting rod means is also rotatably connected to the crank means by means of a third rotation pin parallel and spaced from the first rotation pin; wherein the portion of the connecting rod means carrying the third rotation pin has an arm means projecting in opposite direction from the second rotation pin or at least approximately parallel to the longitudinal extension of the connecting rod means and designed to move in a closing direction at least at the end portion of the closing rotation of the door and wherein said hinge device comprises a damper means of linear type housed in a respective housing means and approximately oriented parallel to the closing direction of the arm means which, during said movement, matches with a mobile member of the damper means damping the translation of the connecting rod means and the rotation of the end closing portion of the door.
A kit for centrifugal isolation of a fraction of interest from a multi-component composition according to density, comprising: - a separation chamber having an inlet for introducing the multi-component composition and a base through-hole; characterized in that the separation chamber comprises: - an inlet section communicating with the inlet; - a base section communicating with the base through-hole; - wherein the inlet section and the base section communicate with each other via a necked duct for detaching the inlet section and the base section at the necked duct; - wherein the separation chamber has a form of a syringe in which the inlet of the separation chamber is connectable with an extension nozzle or needle for drawing the multi-component composition; - and wherein the kit further comprises a plunger for embedding and being slidably moved within the base section of the separation chamber, wherein the plunger comprises a plunger handle, removably attached to a plunger base, for sealing the base through-hole; - and wherein the diameter of the necked duct lumen is selected so as to maintain the multi-component composition, after detaching the inlet section and the base section at the necked duct, in the inlet section, by virtue of a partial negative pressure created within the inlet section when the inlet is sealed. - a separation chamber having an inlet for introducing the multi-component composition and a base through-hole; - an inlet section communicating with the inlet; - a base section communicating with the base through-hole; - wherein the inlet section and the base section communicate with each other via a necked duct for detaching the inlet section and the base section at the necked duct; - wherein the separation chamber has a form of a syringe in which the inlet of the separation chamber is connectable with an extension nozzle or needle for drawing the multi-component composition; - and wherein the kit further comprises a plunger for embedding and being slidably moved within the base section of the separation chamber, wherein the plunger comprises a plunger handle, removably attached to a plunger base, for sealing the base through-hole; - and wherein the diameter of the necked duct lumen is selected so as to maintain the multi-component composition, after detaching the inlet section and the base section at the necked duct, in the inlet section, by virtue of a partial negative pressure created within the inlet section when the inlet is sealed.
A device (10, 11, 30) for allowing parallel powering, comprising: - a characteristic setting unit (22, 31) for setting an impedance as a characteristic, wherein the characteristic is used for signaling the presence of a compliant powered device (10, 11, 2) arranged to be powered by Power-over-Ethernet and wherein the characteristic is to be detected by a power source equipment via a supply line for powering, - a sensor (23, 32) coupled to the supply line, wherein the sensor (23, 32) is arranged for checking for an application of a detection voltage and/or detection current by the power source equipment to the supply line for detection of a compliant device and for outputting a sensor signal when an unsuccessful attempt for detection of a compliant device is recognized, and - a controller (23, 33) coupled to the characteristic setting unit (22, 31) and the sensor (23, 32), wherein the controller (23, 33) is arranged, upon receipt of the sensor signal from the sensor (23, 32), for controlling the characteristic setting unit (22, 31) so to change the characteristic, and the characteristic setting unit is an interface for presenting the characteristic to the supply line in order to signal the presence of the powered device (10, 11), wherein the device (10, 11) is a powered device (10, 11) arranged for being powered via the supply line or wherein the device is a connecting unit arranged for coupling the power source equipment and at least one powered device and wherein the device includes at least a portion of the supply line. - a characteristic setting unit (22, 31) for setting an impedance as a characteristic, wherein the characteristic is used for signaling the presence of a compliant powered device (10, 11, 2) arranged to be powered by Power-over-Ethernet and wherein the characteristic is to be detected by a power source equipment via a supply line for powering, - a sensor (23, 32) coupled to the supply line, wherein the sensor (23, 32) is arranged for checking for an application of a detection voltage and/or detection current by the power source equipment to the supply line for detection of a compliant device and for outputting a sensor signal when an unsuccessful attempt for detection of a compliant device is recognized, and - a controller (23, 33) coupled to the characteristic setting unit (22, 31) and the sensor (23, 32), wherein the controller (23, 33) is arranged, upon receipt of the sensor signal from the sensor (23, 32), for controlling the characteristic setting unit (22, 31) so to change the characteristic,
A cable for transporting electricity of the type comprising at least one insulated phase conductor (12, 14, 16), a neutral conductor and a shield, the shield surrounding the phase conductor and the neutral conductor and being intended to be connected to a reference potential, a portion of said neutral conductor being in contact with a portion of said shield, said portions consisting of a material based on a same electrically conducting metal, a cable characterized in that the neutral conductor and the shield are both covered with a coating (26, 34) based on said same electrically conducting metal.
A blade outer airseal having: a body comprising: an inner diameter surface; an outer diameter surface; a leading end; a trailing end; a metallic substrate; and a coating system atop the substrate along at least a portion of the inner diameter surface, wherein: at least over a first area of the inner diameter surface, the coating system comprises an abradable layer comprising a metallic matrix and a solid lubricant; and characterized in that the metallic matrix comprises, by weight: 15.0-20.0% cobalt; 6.0-10.0% aluminum; and 8.0-12.0% chromium; ≤ 1.0% hafnium; ≤ 1.0% silicon; ≤ 1.0% yttrium; optionally (i) ≤ 0.5% combined niobium, molybdenum, tantalum, tungsten, and rhenium, and/or (ii) ≤ 5.0% iron; and the balance nickel and at least 55% nickel, and unavoidable impurities; and at 649 °C (1200 °F) the metallic matrix has one or both of: (a) at least 30% primary fcc; at least 40% by volume gamma prime; and at most 10% by volume beta crystal structure; and (b) at least 98% by volume fcc and L12 phases combined with at least 30% L12. an inner diameter surface; an outer diameter surface; a leading end; a trailing end; a metallic substrate; and a coating system atop the substrate along at least a portion of the inner diameter surface, at least over a first area of the inner diameter surface, the coating system comprises an abradable layer comprising a metallic matrix and a solid lubricant; and characterized in that the metallic matrix comprises, by weight: 15.0-20.0% cobalt; 6.0-10.0% aluminum; and 8.0-12.0% chromium; ≤ 1.0% hafnium; ≤ 1.0% silicon; ≤ 1.0% yttrium; optionally (i) ≤ 0.5% combined niobium, molybdenum, tantalum, tungsten, and rhenium, and/or (ii) ≤ 5.0% iron; and the balance nickel and at least 55% nickel, and unavoidable impurities; and at 649 °C (1200 °F) the metallic matrix has one or both of: (a) at least 30% primary fcc; at least 40% by volume gamma prime; and at most 10% by volume beta crystal structure; and (b) at least 98% by volume fcc and L12 phases combined with at least 30% L12. 15.0-20.0% cobalt; 6.0-10.0% aluminum; and 8.0-12.0% chromium; ≤ 1.0% hafnium; ≤ 1.0% silicon; ≤ 1.0% yttrium; optionally (i) ≤ 0.5% combined niobium, molybdenum, tantalum, tungsten, and rhenium, and/or (ii) ≤ 5.0% iron; and (i) ≤ 0.5% combined niobium, molybdenum, tantalum, tungsten, and rhenium, and/or (ii) ≤ 5.0% iron; and the balance nickel and at least 55% nickel, and unavoidable impurities; and at 649 °C (1200 °F) the metallic matrix has one or both of: (a) at least 30% primary fcc; at least 40% by volume gamma prime; and at most 10% by volume beta crystal structure; and (b) at least 98% by volume fcc and L12 phases combined with at least 30% L12. (a) at least 30% primary fcc; at least 40% by volume gamma prime; and at most 10% by volume beta crystal structure; and (b) at least 98% by volume fcc and L12 phases combined with at least 30% L12.
A medical observation device comprising: a computation section that applies, to an imaging signal corresponding to each of a plurality of different spectral components based on a light receiving result regarding observation target light from a subject in vivo from an image sensor, weights of the plurality of spectral components corresponding to a band targeted for observation from among bands in the observation target light, and computes an evaluation value indicating a degree of being in-focus on a basis of the imaging signal to which the weights are applied; and a control section that outputs a control signal to control, on a basis of the evaluation value, a position of at least one optical member in an optical system that forms an image of the observation target light from the subject onto the image sensor, and to control a focal position of the optical system, wherein the computation section is configured to acquire, from an input section, an observation mode selection signal indicating a light observation mode selected by the user from a plurality of light observation modes, wherein the computation section is configured to apply, to the acquired imaging signal for each of the spectral components, the weights corresponding to the selected light observation mode. a computation section that applies, to an imaging signal corresponding to each of a plurality of different spectral components based on a light receiving result regarding observation target light from a subject in vivo from an image sensor, weights of the plurality of spectral components corresponding to a band targeted for observation from among bands in the observation target light, and computes an evaluation value indicating a degree of being in-focus on a basis of the imaging signal to which the weights are applied; and a control section that outputs a control signal to control, on a basis of the evaluation value, a position of at least one optical member in an optical system that forms an image of the observation target light from the subject onto the image sensor, and to control a focal position of the optical system, wherein the computation section is configured to acquire, from an input section, an observation mode selection signal indicating a light observation mode selected by the user from a plurality of light observation modes, wherein the computation section is configured to apply, to the acquired imaging signal for each of the spectral components, the weights corresponding to the selected light observation mode.
Control element, in particular for adjusting the roof or windows in a motor vehicle wherein the operating element has a surface with an inserted recess, and with a surface section connected to the surface above the trough, which only partially covers the trough, wherein at least one sensor (5, 5', 5", 5'") is moulded into the surface portion or is arranged or moulded on in whole or in part on the underside of the surface portion, characterized by this, in that the surface section is connected to the surface in one piece and without a gap, and in that the at least one sensor (5, 5', 5", 5"') detects a deformation of the surface section.
Reciprocating-piston machine for compressing a fluid, in particular ambient air, for a compressed air system of a motor vehicle, comprising a cylinder housing having a piston chamber (3a, b, 3a', b'), a piston (14a, b) which can be moved upwards and downwards in the piston chamber (3a, b, 3a', b'), and a cylinder head having a valve carrier plate and a lamellar valve (6a, b) fastened thereon, wherein the lamellar valve (6a, b) has a support tab (7a, b) and a fixing tab (8a, b) and wherein the lamellar valve (6a, b) can be moved against a sealing surface on the valve carrier plate by means of a spring element (15a, b) in the region of the fixing tabs (8a, b), characterized in that a functional element having an impact surface (10a, b) is arranged between the cylinder housing and valve carrier plate of the cylinder head, wherein the functional element has a thickness of between 3 mm and 10 mm, and wherein a guide edge (16á, b) is provided on the valve carrier plate and a support edge (17a, b) is provided on the functional element, the support tab (7a, b) being movably mounted therebetween.
A terminal comprising: a receiving section configured to receive a timing advance command; a control section configured to control a time alignment timer which starts or restarts in response to reception of the timing advance command, in a same time unit as a subframe, even for uplink transmission using a shorter time unit than the subframe; and a transmission section configured to perform uplink transmission by using a time unit that is equal to or shorter than the subframe, based on the time alignment timer, wherein the receiving section is configured to receive a MAC control element including the time advance command by using a downlink shared channel that is scheduled by downlink control information transmitted in the shorter time unit than the subframe. a receiving section configured to receive a timing advance command; a control section configured to control a time alignment timer which starts or restarts in response to reception of the timing advance command, in a same time unit as a subframe, even for uplink transmission using a shorter time unit than the subframe; and a transmission section configured to perform uplink transmission by using a time unit that is equal to or shorter than the subframe, based on the time alignment timer, wherein the receiving section is configured to receive a MAC control element including the time advance command by using a downlink shared channel that is scheduled by downlink control information transmitted in the shorter time unit than the subframe.
Ventilation device having at least one fan and cooling ribs, which fan is driven by a fan motor, and in which device at least the fan motor is supported on at least one bearing element, and the bearing element has a guide structure by which cooling air, moved with the aid of the fan, is positively guided over the cooling ribs of the heat sink of the fan motor, wherein the bearing element is made of silicone, and wherein the bearing element implements the guide structure for the cooling air in such a way that the cooling air is guided in a manner adapted to the structure of the heat sink, and the bearing element can be slipped over the heat sink and radially peripherally encloses the heat sink.
A growth-independent method for detecting a microorganism of interest in a sample, comprising: - contacting the sample with a plurality of non-replicative transduction particles (NRTPs) such that the plurality of NRTPs transduces one or more microorganisms of interest in the sample, wherein the plurality of NRTPs are produced using a disruption/complementation method, wherein said methods do not produce NRTPs that contain a viral genome, and wherein the plurality of NRTPs are bacteriophages capable of delivering a non-viral nucleic acid molecule into the one or more microorganisms of interest without packaging its own replicated viral genome into the transduction particle, said non-viral nucleic acid molecule comprising a reporter nucleic acid sequence including a reporter gene operatively linked to a promoter, and wherein the growth rate of the one or more microorganisms of interest is stationary phase, less than stationary phase, or greater than stationary phase but less than logarithmic phase; - providing conditions for activation of the reporter nucleic acid sequence and expression of a reporter molecule from said reporter gene; and - detecting a signal produced by the reporter molecule, wherein the presence of the signal indicates the presence of the one or more microorganisms of interest, and wherein the absence of the signal indicates the absence of the one or more microorganisms of interest. - contacting the sample with a plurality of non-replicative transduction particles (NRTPs) such that the plurality of NRTPs transduces one or more microorganisms of interest in the sample, wherein the plurality of NRTPs are produced using a disruption/complementation method, wherein said methods do not produce NRTPs that contain a viral genome, and wherein the plurality of NRTPs are bacteriophages capable of delivering a non-viral nucleic acid molecule into the one or more microorganisms of interest without packaging its own replicated viral genome into the transduction particle, said non-viral nucleic acid molecule comprising a reporter nucleic acid sequence including a reporter gene operatively linked to a promoter, and wherein the growth rate of the one or more microorganisms of interest is stationary phase, less than stationary phase, or greater than stationary phase but less than logarithmic phase; - providing conditions for activation of the reporter nucleic acid sequence and expression of a reporter molecule from said reporter gene; and - detecting a signal produced by the reporter molecule, wherein the presence of the signal indicates the presence of the one or more microorganisms of interest, and wherein the absence of the signal indicates the absence of the one or more microorganisms of interest.