mhurhangee/ep-ind-claims huggingface dataset:
A light grid for detecting objects in a monitored area, having a predetermined number of light beams (4a, 4b, 4c) in the form of transmitting pulses emitting transmitters (3a, 3b, 3c) and a number of receiving receivers (5a, 5b, 5c) corresponding to the number of transmitters (3a, 3b, 3c), 4b, 4c) receiving receivers (5a, 5b, 5c), wherein in each case a transmitter is assigned to a receiver to form a light axis, so that when the monitoring area is free the light beams (4a, 4b, 4c) of the transmitter strike the assigned receiver, the transmitters (3a, 3b, 3c) and receivers (5a, 5b, 5c) of the light axes being cyclically activated individually one after the other, and having an evaluation unit for generating a switching signal as a function of the reception signals of the receivers (5a, 5b, 5c), characterised in that a control unit is provided, by means of which interfering light components in the received signals of the receivers (5a, 5b, 5c) are eliminated, the control unit being deactivated during the time intervals within which the transmitters (3a, 3b, 3c) emit transmission pulses.
A process for producing a supercapacitor, comprising a flexible substrate, said process comprising at least the steps of: • unrolling said flexible substrate from a first roll; • spraying a plurality of suspensions comprising micro/nanoparticles suspended in a solvent, said suspensions being sprayed by a plurality of nozzles forming jets of droplets of said suspension defining a spatial region, referred to as deposition region, the composition of said micro/nanoparticles of one said sprayed suspension is different from the composition of said micro/nanoparticles of at least one other said sprayed suspension; • transporting at least one portion of said flexible substrate through a region for deposition of micro/nanoparticles, along a direction of transport of said flexible substrate, the interaction of said deposition region and of said flexible substrate forming an impact region; • heating said flexible substrate, during each spraying operation, so as to encourage the complete evaporation of said solvent from said suspensions sprayed onto said flexible substrate; said process being characterized in that an assembly of at least two nozzles simultaneously sprays at least two suspensions substantially over the same impact region. • unrolling said flexible substrate from a first roll; • spraying a plurality of suspensions comprising micro/nanoparticles suspended in a solvent, said suspensions being sprayed by a plurality of nozzles forming jets of droplets of said suspension defining a spatial region, referred to as deposition region, the composition of said micro/nanoparticles of one said sprayed suspension is different from the composition of said micro/nanoparticles of at least one other said sprayed suspension; • transporting at least one portion of said flexible substrate through a region for deposition of micro/nanoparticles, along a direction of transport of said flexible substrate, the interaction of said deposition region and of said flexible substrate forming an impact region; • heating said flexible substrate, during each spraying operation, so as to encourage the complete evaporation of said solvent from said suspensions sprayed onto said flexible substrate;
A method for operating a filling adapter for filling vehicle air conditioning systems with coolant R744, wherein the filling adapter comprises mechanical clamping elements which are operated by a pneumatically or mechanically controlled clamping piston, wherein the clamping elements are tightened by the clamping piston for the filling process onto specifically designed portions of the vehicle air conditioning system and held in the clamped position during the filling process, characterized in that two different pressure media are applied to the clamping piston, wherein initially the control pressure of the filling adapter is applied, followed by the additional application of filling pressure of the coolant.
A stapling assembly for use with a surgical stapler, comprising: a cartridge (200, 1901) having a plurality of staples disposed therein and a slot (210, 1903) that extends into and along at least a portion of a longitudinal axis of the cartridge, the slot being defined by at least two opposing walls (1903a, 1903b) and configured to receive a cutting element; and a non-fibrous adjunct (1900, 2000, 2100) formed of at least one fused bioabsorbable polymer and configured to be releasably retained on the cartridge such that the adjunct can be attached to tissue by the plurality of staples in the cartridge, the adjunct comprising, a tissue-contacting surface, a cartridge-contacting surface that is opposite the tissue-contacting surface, and an internal lattice structure extending therebetween, the cartridge-contacting surface having at least one attachment element (1910, 2010, 2110) that extends outward therefrom and is configured to be inserted into at least a portion of the slot and is configured to engage the two opposing walls (1903a, 1903b) to thereby retain the non-fibrous adjunct on the cartridge prior to staple deployment, wherein the at least one attachment element includes two compressible members (1912, 1914, 2010a, 2010b) that are interconnected by at least one common elongated joint (1916, 2010c). a cartridge (200, 1901) having a plurality of staples disposed therein and a slot (210, 1903) that extends into and along at least a portion of a longitudinal axis of the cartridge, the slot being defined by at least two opposing walls (1903a, 1903b) and configured to receive a cutting element; and a non-fibrous adjunct (1900, 2000, 2100) formed of at least one fused bioabsorbable polymer and configured to be releasably retained on the cartridge such that the adjunct can be attached to tissue by the plurality of staples in the cartridge, the adjunct comprising, a tissue-contacting surface, a cartridge-contacting surface that is opposite the tissue-contacting surface, and an internal lattice structure extending therebetween, the cartridge-contacting surface having at least one attachment element (1910, 2010, 2110) that extends outward therefrom and is configured to be inserted into at least a portion of the slot and is configured to engage the two opposing walls (1903a, 1903b) to thereby retain the non-fibrous adjunct on the cartridge prior to staple deployment, wherein the at least one attachment element includes two compressible members (1912, 1914, 2010a, 2010b) that are interconnected by at least one common elongated joint (1916, 2010c).
Device for injection moulding a moulded part using a plastics moulding compound, comprising a tool which is connected to an injection moulding machine, wherein the tool has at least one core puller, wherein the at least one core puller is connected to an electromagnetic drive in order to be able to move the at least one core puller out of the cavity in the tool during the injection of the plastics moulding compound into the cavity, wherein a sensor is positioned in the tool in the vicinity of the at least one core puller in order to detect the degree of filling, characterized in that the sensor is a temperature sensor.
A method of imaging an eye while accommodating patient movement, the method comprising: using a beam source to generate an electromagnetic radiation beam; propagating the electromagnetic radiation beam from the beam source to a scanner along a variable optical path having an optical path length that changes in response to movement of the eye; focusing the electromagnetic radiation beam to a focal point at a location within the eye; using the scanner to scan the focal point to different locations within the eye; propagating a portion of the electromagnetic radiation beam reflected from the focal point location back along the variable optical path to a sensor; and using the sensor to generate an intensity signal indicative of the intensity of a portion of the electromagnetic radiation beam reflected from the focal point location and propagated to the sensor; the method further comprising using a first support assembly to support the scanner so as to accommodate relative movement between the scanner and the first support assembly so as to accommodate movement of the eye and provide a variable optical path for the electromagnetic radiation beam and a portion of the electromagnetic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanner and having an optical path length that changes in response to movement of the eye. using a beam source to generate an electromagnetic radiation beam; propagating the electromagnetic radiation beam from the beam source to a scanner along a variable optical path having an optical path length that changes in response to movement of the eye; focusing the electromagnetic radiation beam to a focal point at a location within the eye; using the scanner to scan the focal point to different locations within the eye; propagating a portion of the electromagnetic radiation beam reflected from the focal point location back along the variable optical path to a sensor; and using the sensor to generate an intensity signal indicative of the intensity of a portion of the electromagnetic radiation beam reflected from the focal point location and propagated to the sensor; the method further comprising using a first support assembly to support the scanner so as to accommodate relative movement between the scanner and the first support assembly so as to accommodate movement of the eye and provide a variable optical path for the electromagnetic radiation beam and a portion of the electromagnetic radiation beam reflected from the focal point location, the variable optical path being disposed between the beam source and the scanner and having an optical path length that changes in response to movement of the eye.
Back focus extender for telescopes with interchangeable eyepieces, consisting of a cylindrical housing which has a first and a second stop plane (4, 5) perpendicular to the cylindrical axis in the light direction, with associated connection elements (7, 8) to the telescope and to the interchangeable eyepiece, wherein the housing has a holder, arranged at a distance in front of the first stop plane, for a relay lens arranged perpendicular to the cylindrical axis, characterized in that a) the distance and the focal length f of the relay lens are selected in such a way that an object plane O predetermined relative to the first stop plane is displaced in a manner magnified by the factor β' into an image plane O' with the same relative position in relation to the second stop plane and wherein b) the distance B between the first and the second stop planes (4, 5) equals the magnitude of the back focus displacement 0-0'. a) the distance and the focal length f of the relay lens are selected in such a way that an object plane O predetermined relative to the first stop plane is displaced in a manner magnified by the factor β' into an image plane O' with the same relative position in relation to the second stop plane and wherein b) the distance B between the first and the second stop planes (4, 5) equals the magnitude of the back focus displacement 0-0'.
An input device for an electronic device, comprising: a circuit unit comprising a resonance circuit unit including a reactance element with a variable reactance and an induction coil; a recording member configured to record on an intermediate medium, such as paper, and coupled with the reactance element; a connection member affixed to the recording member and configured to transfer the writing pressure to the reactance element; a stylus body configured to accommodate the circuit unit; a tip disposed on an end of the stylus body; a writing tool body configured to accommodate the recording member; and an accommodation recess formed on the writing tool body; wherein, as a recording on the intermediate medium proceeds, a writing pressure is transferred from the recording member to the reactance element so that the reactance of the reactance element varies; wherein the circuit unit is configured to generate a secondary electromagnetic field based on a primary electromagnetic field generated by an input panel; and wherein the stylus body is detachably provided in the accommodation recess, and when the stylus body is mounted in the accommodation recess, the stylus body is maintained in a state in which it is in contact with the tip such that the writing pressure is transferred to the reactance element through the tip. a circuit unit comprising a resonance circuit unit including a reactance element with a variable reactance and an induction coil; a recording member configured to record on an intermediate medium, such as paper, and coupled with the reactance element; a connection member affixed to the recording member and configured to transfer the writing pressure to the reactance element; a stylus body configured to accommodate the circuit unit; a tip disposed on an end of the stylus body; a writing tool body configured to accommodate the recording member; and an accommodation recess formed on the writing tool body; wherein, as a recording on the intermediate medium proceeds, a writing pressure is transferred from the recording member to the reactance element so that the reactance of the reactance element varies; wherein the circuit unit is configured to generate a secondary electromagnetic field based on a primary electromagnetic field generated by an input panel; and wherein the stylus body is detachably provided in the accommodation recess, and when the stylus body is mounted in the accommodation recess, the stylus body is maintained in a state in which it is in contact with the tip such that the writing pressure is transferred to the reactance element through the tip.
An ultrasonic probe having: a plurality of piezoelectric elements (1, 11), which are arrayed in one direction, for transmitting and receiving ultrasonic waves; a backing load member (5, 15) placed on rear surfaces of said plurality of piezoelectric elements (1, 11); an electrode (3, 13) provided to a backing load member side of said piezoelectric element (1, 11); and one or more sheet-shaped heat conduction materials (6, 16) which are placed in parallel along an array direction of said piezoelectric elements (1, 11) and a depth direction inside said backing load member (5, 15) and whose thermal conductivities are greater than a thermal conductivity of said backing load member (5, 15); characterized by an insulating layer thinly coated between said electrode (3, 13) and said heat conduction material (6, 16). a plurality of piezoelectric elements (1, 11), which are arrayed in one direction, for transmitting and receiving ultrasonic waves; a backing load member (5, 15) placed on rear surfaces of said plurality of piezoelectric elements (1, 11); an electrode (3, 13) provided to a backing load member side of said piezoelectric element (1, 11); and one or more sheet-shaped heat conduction materials (6, 16) which are placed in parallel along an array direction of said piezoelectric elements (1, 11) and a depth direction inside said backing load member (5, 15) and whose thermal conductivities are greater than a thermal conductivity of said backing load member (5, 15); characterized by an insulating layer thinly coated between said electrode (3, 13) and said heat conduction material (6, 16).
A method for manufacturing a connecting rod with screwed inserts comprising the following steps: - Providing a cylindrical mandrel, - Providing a plurality of rings having an inner diameter substantially equal to that of the outer diameter of the mandrel, said rings having an external thread and a circular internal bore, - Positioning said rings at intervals over the length of the mandrel, - Placing fibers pre-impregnated with resin on the mandrel and the rings by filament winding, - Curing the assembly formed by the mandrel, the rings and the pre-impregnated fibers in order to polymerize the resin, - Removing the mandrel to obtain a tube, - Cutting the tube at the rings in order to obtain a connecting rod body with a ring portion at each end, - Removing the ring portions at each end of the tube in order to form a connecting rod body with an internal thread at each end, - Screwing an insert at each internal thread to produce the connecting rod with screwed inserts. - Providing a cylindrical mandrel, - Providing a plurality of rings having an inner diameter substantially equal to that of the outer diameter of the mandrel, said rings having an external thread and a circular internal bore, - Positioning said rings at intervals over the length of the mandrel, - Placing fibers pre-impregnated with resin on the mandrel and the rings by filament winding, - Curing the assembly formed by the mandrel, the rings and the pre-impregnated fibers in order to polymerize the resin, - Removing the mandrel to obtain a tube, - Cutting the tube at the rings in order to obtain a connecting rod body with a ring portion at each end, - Removing the ring portions at each end of the tube in order to form a connecting rod body with an internal thread at each end, - Screwing an insert at each internal thread to produce the connecting rod with screwed inserts.
Method for depth determination of a surface of a test object, in which a colored fringe pattern which is formed from a sequence of colored fringes is projected onto a surface of the test object, in which a fringe pattern that is reflected by the surface of the test object is captured and evaluated using an evaluation apparatus, wherein the colored fringe pattern and the evaluation apparatus are configured such that the depth determination of the surface of the test object is performed using the sequence of colored fringes of the reflected fringe pattern and using a sequence of widths of the fringes of the reflected fringe pattern.
An image capturing apparatus for capturing an image of an object comprising: an image sensor; driving control means configured to control driving of the image sensor; and flicker detection means configured to detect flicker based on a signal output from the image sensor, the flicker being a periodic change in a light amount of the object, wherein the driving control means is configured to, if the image sensor outputs a flicker detection signal to be used in detecting the flicker, control the driving of the image sensor at n different frame rates, n being a natural number greater than or equal to 3, wherein a least common multiple of the n frame rates used in detecting the flicker is not same as any of the n frame rates and is greater than or equal to a predetermined frequency, and wherein the flicker detection means is configured to detect the flicker based on the flicker detection signal obtained at each of the n frame rates. an image sensor; driving control means configured to control driving of the image sensor; and flicker detection means configured to detect flicker based on a signal output from the image sensor, the flicker being a periodic change in a light amount of the object, wherein the driving control means is configured to, if the image sensor outputs a flicker detection signal to be used in detecting the flicker, control the driving of the image sensor at n different frame rates, n being a natural number greater than or equal to 3, wherein a least common multiple of the n frame rates used in detecting the flicker is not same as any of the n frame rates and is greater than or equal to a predetermined frequency, and wherein the flicker detection means is configured to detect the flicker based on the flicker detection signal obtained at each of the n frame rates.
A method comprising: selecting a first access network selection policy provided by a visited network in which a mobile communication device is located; selecting a second access network selection policy that has been provided by a home network of the mobile communication device; applying (72, 76) at least one of the selected first and second access network selection policies; and applying user-defined network policies, characterized in that the applying at least one of the selected first and second access network selection policies comprises ordering the first and the second access network selection policies depending on a relative priority flag included in at least one of the first or second access network selection policies, wherein the user-defined network policies have a higher priority than the first and second access network policies, and wherein the user-defined network policies are applied and stored before the first and second access network selection policies. selecting a first access network selection policy provided by a visited network in which a mobile communication device is located; selecting a second access network selection policy that has been provided by a home network of the mobile communication device; applying (72, 76) at least one of the selected first and second access network selection policies; and applying user-defined network policies, characterized in that the applying at least one of the selected first and second access network selection policies comprises ordering the first and the second access network selection policies depending on a relative priority flag included in at least one of the first or second access network selection policies, wherein the user-defined network policies have a higher priority than the first and second access network policies, and wherein the user-defined network policies are applied and stored before the first and second access network selection policies.