mhurhangee/ep-ind-claims huggingface dataset:
Method of trimming heavy plates by means of heavy-plate shears, which comprise trimming knives (7, 8) spanning a trimming knife plane, wherein the scrap strips arising during the trimming are cut up into pieces of scrap by a scrap knife device, which is arranged behind the trimming knives (7, 8) as seen in transport direction of the heavy plate, with a scrap upper knife and a scrap lower knife and wherein the scrap upper knife and the scrap lower knife span a scrap knife plane, characterised in that the spacing between the scrap upper knife and the trimming knife plane and the spacing between the scrap lower knife and the trimming knife plane are set prior to a respective trimming process and in dependence on the thickness of the respective heavy plate, which is to be trimmed, by displacement of the scrap upper knife and the scrap lower knife in a displacement direction with at least one component transverse to the trimming knife plane; in addition to the spacing between the scrap upper knife and the trimming knife plane and the spacing between the scrap lower knife and the trimming knife plane the scrap knife gap width is also set in dependence on the thickness of the heavy plate, which is to be trimmed, by displacing the scrap upper knife and the scrap lower knife relative to one another in the displacement direction with a further component transverse to the scrap knife plane spanned by the scrap knives, the displacements of the scrap upper knife and/or the scrap lower knife are carried out simultaneously transversely to the trimming knife plane and transversely to the scrap knife plane, the scrap upper knife or the scrap lower knife is fastened in a slide guided to be displaceable in a scrap knife slide guide, and the simultaneous displacement of the scrap upper knife and the scrap lower knife transversely to the trimming knife plane and transversely to the scrap knife plane is carried by rotation of at least one eccentric shaft disposed in operative connection with the scrap knife slide guide (20, 20').
An apparatus for monitoring EMG signals of a patient's laryngeal muscles, comprising: an endotracheal tube having an exterior surface; a tube coating that has been applied to the exterior surface via spraying of a homogeneous solution onto the endotracheal tube or immersion of the endotracheal tube in the homogeneous solution; and wherein a conductive electrode formed on the tube coating that has been applied to the exterior surface, the conductive electrode configured to receive the EMG signals from the laryngeal muscles. an endotracheal tube having an exterior surface; a tube coating that has been applied to the exterior surface via spraying of a homogeneous solution onto the endotracheal tube or immersion of the endotracheal tube in the homogeneous solution; and wherein a conductive electrode formed on the tube coating that has been applied to the exterior surface, the conductive electrode configured to receive the EMG signals from the laryngeal muscles.
An endoscopic instrument, the instrument including: (a) an instrument shaft having a distal end portion and a longitudinal axis spanning distal and proximal sides of the distal end portion; (b) an image sensor (216, 218) positioned to receive image light through the instrument shaft distal end portion, the image sensor (216, 218) including a sensor array of active areas, and a micro-lens array including a plurality of micro-lenses arranged over the active areas such that the micro-lenses are progressively offset toward an optical center point of the sensor array as a distance from the respective active area to the optical center point increases, the progressive offset varying non-linearly with the distance; (c) a lens assembly including (i) an objective lens or lens group positioned in the instrument shaft distal end portion to receive image light from an object space and pass the image light toward the proximal side, and (ii) a second lens group having a negative optical power including a plano-concave lens (408, 508, 604, 704, 1004), the plano-concave lens (408, 508, 604, 704, 1004) optically positioned between the objective lens or lens group and the image sensor (216, 218), the negative optical power modifying a chief ray angle characteristic of the lens assembly to match a chief ray angle characteristic required by the image sensor (216, 218) and micro-lens array non-linearly progressing offsets, wherein the progressive offset of the micro-lenses varies non-linearly with the distance from the respective micro-lenses to the sensor array optical center point. (a) an instrument shaft having a distal end portion and a longitudinal axis spanning distal and proximal sides of the distal end portion; (b) an image sensor (216, 218) positioned to receive image light through the instrument shaft distal end portion, the image sensor (216, 218) including a sensor array of active areas, and a micro-lens array including a plurality of micro-lenses arranged over the active areas such that the micro-lenses are progressively offset toward an optical center point of the sensor array as a distance from the respective active area to the optical center point increases, the progressive offset varying non-linearly with the distance; (c) a lens assembly including (i) an objective lens or lens group positioned in the instrument shaft distal end portion to receive image light from an object space and pass the image light toward the proximal side, and (ii) a second lens group having a negative optical power including a plano-concave lens (408, 508, 604, 704, 1004), the plano-concave lens (408, 508, 604, 704, 1004) optically positioned between the objective lens or lens group and the image sensor (216, 218), the negative optical power modifying a chief ray angle characteristic of the lens assembly to match a chief ray angle characteristic required by the image sensor (216, 218) and micro-lens array non-linearly progressing offsets,
A locking system (1a, 1b, 1c) for a tile on a support frame comprising: - a body (3a, 3b) integral with a cover element of the tile, - a locking finger able to move in a housing made in the body (3a, 3b) and intended to press on the support frame in a locked position, - a first elastic organ (5, 47) to drive the finger into the locked position, and - a return organ (55a, 55b, 9) to bring the finger back to its unlocked position, against the action of the first elastic organ (5, 47), wherein it comprises a catch (45, 51) to immobilize the finger in the unlocked position, the catch being integral with a second elastic organ (16, 17) linked to the locking system, the return organ comprising an actuation surface (8, 9) intended to be displaced by the pressure on it of an immobilizing tool. - a body (3a, 3b) integral with a cover element of the tile, - a locking finger able to move in a housing made in the body (3a, 3b) and intended to press on the support frame in a locked position, - a first elastic organ (5, 47) to drive the finger into the locked position, and - a return organ (55a, 55b, 9) to bring the finger back to its unlocked position, against the action of the first elastic organ (5, 47),
A material handling vehicle comprising: a frame, and a vertically movable platform mounted relative to the frame, the platform being vertically movable between an upper position and a lower position, characterized in that the material handling vehicle includes: a deactivated hardware item configured to be installed after the vehicle being deployed to a customer location; a controller (202, 218) configured to activate the deactivated hardware item; and a near field communication reader adapted to communicate with the controller (202, 218); wherein the controller (202, 218) is configured to activate the deactivated hardware item when a near field communication device encoded with information for the deactivated hardware item is placed within an operable range to the near field communication reader. a frame, and a vertically movable platform mounted relative to the frame, the platform being vertically movable between an upper position and a lower position, characterized in that the material handling vehicle includes: a deactivated hardware item configured to be installed after the vehicle being deployed to a customer location; a controller (202, 218) configured to activate the deactivated hardware item; and a near field communication reader adapted to communicate with the controller (202, 218); wherein the controller (202, 218) is configured to activate the deactivated hardware item when a near field communication device encoded with information for the deactivated hardware item is placed within an operable range to the near field communication reader. a deactivated hardware item configured to be installed after the vehicle being deployed to a customer location; a controller (202, 218) configured to activate the deactivated hardware item; and a near field communication reader adapted to communicate with the controller (202, 218); wherein the controller (202, 218) is configured to activate the deactivated hardware item when a near field communication device encoded with information for the deactivated hardware item is placed within an operable range to the near field communication reader.
An apparatus comprising: a processor operative to determine channel estimates for a plurality of data streams to be sent to a single receiver; and a controller operative to select a single code rate for the plurality of data streams and a plurality of modulation schemes for the plurality of data streams based on the channel estimates, wherein the controller is operative to select one code rate from among a plurality of code rates supported by the system and to provide the one code rate as the single code rate for encoding the plurality of data streams and wherein each of the plurality of code rates is associated with a respective set of modulation schemes, and wherein the controller is operative to select a modulation scheme for each of the plurality of data streams from among the set of modulation schemes associated with the single code rate. a processor operative to determine channel estimates for a plurality of data streams to be sent to a single receiver; and a controller operative to select a single code rate for the plurality of data streams and a plurality of modulation schemes for the plurality of data streams based on the channel estimates,
A sprinkler for achieving a high atomization effect under a low-pressure condition and for water-saving irrigation, comprising a threaded connecting pipe, a low-pressure fine atomizing nozzle, a small motor fan, a storage battery pack, a top slotted bracket, a bottom slotted bracket with a U-shaped slot, a screw rod, and adjustable screw nuts, wherein the low-pressure fine atomizing nozzle is connected to the threaded connecting pipe and atomization pressure is adjusted via a valve; wherein the low-pressure fine atomizing nozzle is disposed at the outlet of the threaded connecting pipe to jet water flow; wherein the small rotor fan is disposed vertically opposite to the low-pressure fine atomizing nozzle; wherein the bottom slotted bracket is connected with the top slotted bracket via the screw rod and the vertical distance between the two slotted brackets can be adjusted by turning the adjustable screw nut; wherein the screw rod is disposed in parallel on one side of the threaded connecting pipe; wherein the top end of the screw rod is connected to the threaded connecting pipe via the top slotted bracket; wherein the bottom slotted bracket is disposed at the bottom end of the screw rod; wherein the small motor fan is disposed on the bottom slotted bracket and comprises a small motor and a m-blade propeller fan; wherein the small motor fan can move left and right in the U-shaped slot of the bottom slotted bracket to adjust the lateral distance from the low-pressure fine atomizing nozzle; wherein the adjustable screw nut can be screwed up and down on the screw rod to adjust the axial distance between the small motor fan and the low-pressure fine atomizing nozzle; and wherein the storage battery pack supplies power to the small motor fan.
An optoelectronic device comprising: - a dielectric substrate; - a first and a second electrode formed on the substrate, each electrode comprising a plurality of conductive strips, the conductive strips of the first electrode and the conductive strips of the second electrode being arranged in an interdigital structure; - a pattern of semiconducting material in form of a plurality of micro-and/or nano-pillars of mesoscopic semiconductor nanoparticles with a size ranging from 2 to 50 nm arranged in columnar form on the conductive strips of the first electrode, wherein the micro-and/or nano-pillars are perpendicular to the substrate; - counter electrode material arranged on the conductive fingers of the second electrode; - an ion-conductor encapsulating the interdigital structure, the pattern of semiconductor material and the counter electrode material; wherein the micro- or nano-pillars have a diameter ranging from 40 nm to 900 μm, height ranging from 20 to 8000 μm and inter-pillar distance ranging from 20 nm to 8000 μm. - a dielectric substrate; - a first and a second electrode formed on the substrate, each electrode comprising a plurality of conductive strips, the conductive strips of the first electrode and the conductive strips of the second electrode being arranged in an interdigital structure; - a pattern of semiconducting material in form of a plurality of micro-and/or nano-pillars of mesoscopic semiconductor nanoparticles with a size ranging from 2 to 50 nm arranged in columnar form on the conductive strips of the first electrode, wherein the micro-and/or nano-pillars are perpendicular to the substrate; - counter electrode material arranged on the conductive fingers of the second electrode; - an ion-conductor encapsulating the interdigital structure, the pattern of semiconductor material and the counter electrode material;
Measuring device for measuring a measured variable by means of a diffraction measurement, with a) a radiation source emitting radiation, b) an object arranged in the beam path of the radiation source, and c) a radiation detector disposed in the beam path of the radiation source behind the object and measuring a Fresnel diffraction image of the object, d) an evaluation unit, wherein the radiation detector is connected on the output side to the evaluation unit and the evaluation unit evaluates the measured Fresnel diffraction image and derives the measured variable from the measured Fresnel diffraction image, characterized in that, e) the measured variable to be measured is a property of an environment of the object, f) the measured variable influences an environment-dependent property variable of the object so that the environment-dependent property variable of the object reflects the measured variable, g) the environment-dependent property variable of the object influences the Fresnel diffraction image, so that the measured Fresnel diffraction image of the object reflects the environment-dependent property variable and thus also the measured quantity, h) a sensor layer (11; 11') is applied to the object (7'; 7-9), i) the environment-dependent property variable of the object (7'; 7-9) is a layer parameter of the sensor layer (11; 11'), and j) the Fresnel diffraction image measured by the radiation detector depends on the environment-dependent layer parameter of the sensor layer (11; 11') and thus reflects the measured variable of the environment. a) a radiation source emitting radiation, b) an object arranged in the beam path of the radiation source, and c) a radiation detector disposed in the beam path of the radiation source behind the object and measuring a Fresnel diffraction image of the object, d) an evaluation unit, wherein the radiation detector is connected on the output side to the evaluation unit and the evaluation unit evaluates the measured Fresnel diffraction image and derives the measured variable from the measured Fresnel diffraction image, e) the measured variable to be measured is a property of an environment of the object, f) the measured variable influences an environment-dependent property variable of the object so that the environment-dependent property variable of the object reflects the measured variable, g) the environment-dependent property variable of the object influences the Fresnel diffraction image, so that the measured Fresnel diffraction image of the object reflects the environment-dependent property variable and thus also the measured quantity, h) a sensor layer (11; 11') is applied to the object (7'; 7-9), i) the environment-dependent property variable of the object (7'; 7-9) is a layer parameter of the sensor layer (11; 11'), and j) the Fresnel diffraction image measured by the radiation detector depends on the environment-dependent layer parameter of the sensor layer (11; 11') and thus reflects the measured variable of the environment.
A chromatographic kit comprising: a label substance modified with a first binding substance for a test substance; a nonionic surfactant; a Good's buffer, wherein the Good's buffer is N-[tris(hydroxymethyl)methyl]glycine also known as Tricine, 2-hydroxy-3-[4-(2-hydroxyethyl)-1-piperazinyl]propanesulfonic acid monohydrate also known as HEPPSO, N-tris(hydroxymethyl)methyl-3-aminopropanesulfonic acid also known as TAPS, or N-cyclohexyl-2-aminoethanesulfonic acid also known as CHES; casein; a porous carrier including a second binding substance for the test substance or a binding substance for the first binding substance; a compound containing silver; and a reducing agent reducing silver ions. a label substance modified with a first binding substance for a test substance; a nonionic surfactant; a Good's buffer, wherein the Good's buffer is N-[tris(hydroxymethyl)methyl]glycine also known as Tricine, 2-hydroxy-3-[4-(2-hydroxyethyl)-1-piperazinyl]propanesulfonic acid monohydrate also known as HEPPSO, N-tris(hydroxymethyl)methyl-3-aminopropanesulfonic acid also known as TAPS, or N-cyclohexyl-2-aminoethanesulfonic acid also known as CHES; casein; a porous carrier including a second binding substance for the test substance or a binding substance for the first binding substance; a compound containing silver; and a reducing agent reducing silver ions.
Injection device having a housing, a central longitudinal axis, an operating element and a dosing member held rotatably in the housing while being fixed in the direction of the central longitudinal axis, wherein the operating element is in a first position mounted rotatably with respect to the housing and non-rotatably connected to the dosing member by way of a first coupling element for setting a quantity of injection fluid to be expressed, wherein the operating element is in a second position non-rotatably connected to the housing by way of a second coupling element and rotatable with respect to the dosing member for expressing a quantity of injection fluid to be expressed, and wherein a latching device, which is only operative in the first position of the operating element when setting a quantity of injection fluid to be expressed, acts between the operating element and the housing, characterised in that a second latching device, which is only operative in the second position of the operating element when expressing a quantity of injection fluid to be expressed, acts between the operating element and the dosing member.
System for estimating the individual water consumption of a plurality of apparatuses supplied by the secondary fluid distribution network of a user, characterized in that the system comprises a sleeve suitable for being mounted around the supply pipe of said secondary network, said sleeve consisting of two tubular half-shells (3, 4), one of which comprises a passive electromechanical sensor applied against the outer wall of said supply pipe in order to acquire intrinsic signals emitted by the interaction of a fluid with a duct in which said fluid circulates, said half-shells being interconnected by a joint which allows the sleeve to open in order to be inserted around the duct and to close in order to apply said electromechanical sensor against the wall of said duct, and a computer for analyzing signals delivered by said passive electromechanical sensor in order to extract information characterizing the individual consumption of at least some of the apparatuses supplied by said secondary network.
A method for monitoring and controlling the output current from an electronic drive system comprising a diode rectifier bridge and a switched power supply of fly-back type for the driving of a load with a Zener characteristic, for example, a non-linear load of light-emitting diodes, LEDs, the method comprising - converting, by the diode rectifier bridge, an AC voltage (Uin) to a rectified DC voltage and feeding the rectified DC voltage in its raw, unfiltered or solely half-wave rectified form to the input terminals of the power supply, - controlling the output current (lout) from the power supply by means of pulse width modulation through a duty cycle defined as a ratio between the lengths of the ON and OFF phases of a switch in a primary circuit of the switched power supply, - arranging a linear current regulator at the output (UCout) of the switched power supply, - regulating a current through the load that is connected to the output (Uout) of the linear current regulator by means of the linear current regulator, characterised in that the method further comprises - measuring a fall in voltage (M1-M2) across the linear current regulator, - using the fall in voltage for the formation of a first control signal by a feedback loop (18, 19; 18, 19, 20), wherein the feedback loop forms an integrating circuit and the first control signal is output to a primary side of the power supply, - using the first control signal for the control of the output voltage (Uout) of the power supply through regulation of the duty cycle of the switch, and - assigning an integration time of the feedback loop (18, 19; 18, 19, 20) to be at least 10 times greater than the integral integration time or inertia of the switched power supply. - converting, by the diode rectifier bridge, an AC voltage (Uin) to a rectified DC voltage and feeding the rectified DC voltage in its raw, unfiltered or solely half-wave rectified form to the input terminals of the power supply, - controlling the output current (lout) from the power supply by means of pulse width modulation through a duty cycle defined as a ratio between the lengths of the ON and OFF phases of a switch in a primary circuit of the switched power supply, - arranging a linear current regulator at the output (UCout) of the switched power supply, - regulating a current through the load that is connected to the output (Uout) of the linear current regulator by means of the linear current regulator, - measuring a fall in voltage (M1-M2) across the linear current regulator, - using the fall in voltage for the formation of a first control signal by a feedback loop (18, 19; 18, 19, 20), wherein the feedback loop forms an integrating circuit and the first control signal is output to a primary side of the power supply, - using the first control signal for the control of the output voltage (Uout) of the power supply through regulation of the duty cycle of the switch, and - assigning an integration time of the feedback loop (18, 19; 18, 19, 20) to be at least 10 times greater than the integral integration time or inertia of the switched power supply.