mhurhangee/ep-ind-claims huggingface dataset:
Coin dispenser device provided with a rotating disc means, activated for rotating by motorized means by means of transmission means, provided with a set of housings for coins, picked from a tank, fit to make each one of said coins match with ejecting means fit to push each one of said coins into an outlet channel, the disc means is provided with a crown wheel engaged with an outlet pinion of the transmission means, each housing of the disc means comprises a pass-through hole having a diameter almost equal or greater than the coins diameter and comprises a flat means for sliding fit to allow the sliding of the coins housed in the pass-though holes, the disc means further comprises a set of lateral pass-through slots each one placed laterally to a respective housing having sufficient dimensions for the lateral outgoing of a coin; the means for sliding has matching means protruding from it and sliding in ring-like grooves made in the face of the disc means matching in a sliding way the means for sliding, said the matching means have a plurality of protruding teeth each one housed in a respective hole of the means for sliding; said device being characterized in that the matching means has elastic means in order to allow the teeth coming inside within the profile of the means for sliding for disengaging from a jammed coin
A photovoltaic unit (100; 200; 300; 400) comprising: - a housing (110; 310) having a cylindrical wall (115; 315) arranged around a central axis of the housing, a translucent closing element (120; 320) at a first end of the cylindrical wall and a second conical closing element (125; 325) at a second end of the cylindrical wall, wherein the second closing element (125; 325) is at least partially reflective to sun light, - a substantially cylindrical photovoltaic cell (150; 350) arranged along said central axis, comprising an anode (155; 355), a cathode (160; 360) and photoactive material, wherein electrical output wires (170; 370) are connected to the anode (155; 355) and to the cathode (160; 360), and wherein an inner surface of the cylindrical wall (115; 315) is reflective to sun light. - a housing (110; 310) having a cylindrical wall (115; 315) arranged around a central axis of the housing, a translucent closing element (120; 320) at a first end of the cylindrical wall and a second conical closing element (125; 325) at a second end of the cylindrical wall, wherein the second closing element (125; 325) is at least partially reflective to sun light, - a substantially cylindrical photovoltaic cell (150; 350) arranged along said central axis, comprising an anode (155; 355), a cathode (160; 360) and photoactive material, wherein electrical output wires (170; 370) are connected to the anode (155; 355) and to the cathode (160; 360), and wherein an inner surface of the cylindrical wall (115; 315) is reflective to sun light.
An apparatus for measuring thermodynamic properties of reservoir fluids, comprising: a sensor assembly comprising a cell body having a sample chamber for receiving a fluid sample of single phase or coexisting two-phase fluid, the fluid sample forming a fluid column in the sample chamber, and a density-viscosity sensor located in-situ in the cell body to measure the density and viscosity of the fluid sample in the sample chamber as a function of pressure and temperature, and characterised in that the cell body is movable relative to the fluid column. a sensor assembly comprising a cell body having a sample chamber for receiving a fluid sample of single phase or coexisting two-phase fluid, the fluid sample forming a fluid column in the sample chamber, and a density-viscosity sensor located in-situ in the cell body to measure the density and viscosity of the fluid sample in the sample chamber as a function of pressure and temperature, and characterised in that the cell body is movable relative to the fluid column.
Device for generating, storing and releasing ions from a residual gas atmosphere, comprising an electron source for releasing electrons, an anode permeable to the electrons released by the electron source with a negative space charge distribution formed by the electrons within an ion storage space at least partially surrounded by the anode and a pulse electrode electrically insulated from the anode for extracting the ions from the storage space, wherein no further electrodes are located within the ion storage space and the ion storage space has a spatial potential distribution which is attractive for the ions generated by ionization of the residual gas atmosphere solely as a result of the negative space charge distribution generated by the electrons and stores ions and the anode and the pulse electrode are at the same potential during the storage process, wherein the particles of the residual gas can be ionized by the negative space charge and an attractive potential can be formed for the positive ions formed, wherein the negative space charge forms a storage area for the ions generated, with a means for regulating the time interval between successive switching operations of the pulse electrode to a fixed predetermined strength of the measured released ion packet. comprising an electron source for releasing electrons, an anode permeable to the electrons released by the electron source with a negative space charge distribution formed by the electrons within an ion storage space at least partially surrounded by the anode and a pulse electrode electrically insulated from the anode for extracting the ions from the storage space, wherein no further electrodes are located within the ion storage space and the ion storage space has a spatial potential distribution which is attractive for the ions generated by ionization of the residual gas atmosphere solely as a result of the negative space charge distribution generated by the electrons and stores ions and the anode and the pulse electrode are at the same potential during the storage process, wherein the particles of the residual gas can be ionized by the negative space charge and an attractive potential can be formed for the positive ions formed, wherein the negative space charge forms a storage area for the ions generated, with a means for regulating the time interval between successive switching operations of the pulse electrode to a fixed predetermined strength of the measured released ion packet.
A method of transmitting three-dimensional audio by a wireless communication device, comprising: capturing an auditory scene; decomposing the auditory scene, based on using at least two microphone pairs located on the wireless communication device, into one or more audio signals, where each audio signal, representing sound from a different direction, corresponds to a respective corner of the one or more corners of the wireless communication device; compressing the at least one or more audio signals, using at least one codec, to generate audio signal packets; transmitting the audio signal packets over the air in real-time characterized in that the codec encodes, in a predetermined frequency band, for each audio signal of the one or more audio signals obtained from decomposing the auditory scene, the original audio signal captured by the microphone which is nearest to the respective corner of the wireless communication device. capturing an auditory scene; decomposing the auditory scene, based on using at least two microphone pairs located on the wireless communication device, into one or more audio signals, where each audio signal, representing sound from a different direction, corresponds to a respective corner of the one or more corners of the wireless communication device; compressing the at least one or more audio signals, using at least one codec, to generate audio signal packets; transmitting the audio signal packets over the air in real-time characterized in that the codec encodes, in a predetermined frequency band, for each audio signal of the one or more audio signals obtained from decomposing the auditory scene, the original audio signal captured by the microphone which is nearest to the respective corner of the wireless communication device.
Intensity modulator bias voltage determining method for determining an intensity modulator bias voltage corresponding to a desired Quantum Bit Error Rate based on the following formula: Q V IM = Q 0 + R err R err + R cor where Q(V IM) is the desired QBER dependent of the intensity modulator bias voltage V IM, Q0 is the optimal minimal QBER, R err is the number of erroneous detections, R cor is the number of correct detections and V IM is the IM bias voltage, and wherein R err R err + R cor = 1 − Cos π ⋅ V IM − V 0 V π 2 − Cos π ⋅ V IM − V 0 V π + Sin π ⋅ V IM − V 0 V π − Sin π ⋅ V IM − V 0 V π + α RF π ⋅ α RF where V 0 is the optimal set voltage producing said desired QBER, V π is PI-voltage that corresponds to half the voltage difference between two QBER minima and α RF is a scaling factor that accounts for the effective amplitude of the fast RF voltage pulses applied to the modulator and which is calibrated beforehand, and comprising a δV calculating step consisting in determining a voltage value δV based on an inversion of the above equation, corresponding to a correction value to be applied to V IM to obtain the optimal set voltage producing a desired QBER. where Q(V IM) is the desired QBER dependent of the intensity modulator bias voltage V IM, Q0 is the optimal minimal QBER, R err is the number of erroneous detections, R cor is the number of correct detections and V IM is the IM bias voltage, and wherein R err R err + R cor = 1 − Cos π ⋅ V IM − V 0 V π 2 − Cos π ⋅ V IM − V 0 V π + Sin π ⋅ V IM − V 0 V π − Sin π ⋅ V IM − V 0 V π + α RF π ⋅ α RF where V 0 is the optimal set voltage producing said desired QBER, V π is PI-voltage that corresponds to half the voltage difference between two QBER minima and α RF is a scaling factor that accounts for the effective amplitude of the fast RF voltage pulses applied to the modulator and which is calibrated beforehand, and comprising a δV calculating step consisting in determining a voltage value δV based on an inversion of the above equation, corresponding to a correction value to be applied to V IM to obtain the optimal set voltage producing a desired QBER.
Device for printing containers, comprising at least one print head and a container transport device, by means of which a container, located at a container loading position, is moved from the container loading position into a printing position, wherein the printing head is configured for the printing of the container at the printing position, and characterised in that the container transport device comprises an axially movable lifting element (4.2) and a transport arm (4.1) arranged at this lifting element (4.2), which can be pivoted about a pivot axis and by means of which the lifting element (4.2) can be moved axially in relation to this pivot axis, such that the container can be moved with a lifting-pivoting movement from the container loading position into the printing position, wherein the transport arm (4.1) comprises a holding and centring unit for holding and centring the container.
A work machine comprising: a telescopic boom having a first boom and a second boom that are telescopically overlapped; a telescoping actuator that moves the first boom in a telescoping direction with respect to the second boom; an electrical drive source provided in a movable portion of the telescoping actuator; a first fixing pin that connects the telescoping actuator and the first boom; a first connection mechanism that operates on the basis of the power of the electrical drive source, the first connection mechanism switching between a connection state and a disconnection state between the telescoping actuator and the first boom by inserting and removing the first fixing pin; a second fixing pin (315, 325) that connects the first boom and the second boom; the work machine being characterized in that it further comprises: a second connection mechanism that operates on the basis of the power of the electrical drive source, the second connection mechanism switching between a connection state and a disconnection state between the first boom and the second boom by inserting and removing the second fixing pin (315, 325); and a torque limiter that is disposed between the electrical drive source and the first connection mechanism or the second connection mechanism, the torque limiter maintaining, at a predetermined value or less, a load acting on a mechanical element constituting a power transmission path from the electrical drive source to the first connection mechanism or the second connection mechanism. a telescopic boom having a first boom and a second boom that are telescopically overlapped; a telescoping actuator that moves the first boom in a telescoping direction with respect to the second boom; an electrical drive source provided in a movable portion of the telescoping actuator; a first fixing pin that connects the telescoping actuator and the first boom; a first connection mechanism that operates on the basis of the power of the electrical drive source, the first connection mechanism switching between a connection state and a disconnection state between the telescoping actuator and the first boom by inserting and removing the first fixing pin; a second fixing pin (315, 325) that connects the first boom and the second boom; a second connection mechanism that operates on the basis of the power of the electrical drive source, the second connection mechanism switching between a connection state and a disconnection state between the first boom and the second boom by inserting and removing the second fixing pin (315, 325); and a torque limiter that is disposed between the electrical drive source and the first connection mechanism or the second connection mechanism, the torque limiter maintaining, at a predetermined value or less, a load acting on a mechanical element constituting a power transmission path from the electrical drive source to the first connection mechanism or the second connection mechanism.
A method for making a structural composite, said method comprising the steps of: rolling out a first carrier that is a fabric; dispersing filler onto said first carrier to form a mat; applying a binder to the mat; rolling out a second carrier on top of said filler, wherein said first carrier, said filler and said second carrier form said mat; heating said first carrier, said binder and said second carrier to liquefy said first carrier, said binder and said second carrier; pressing said mat, said binder, said first carrier and said second carrier together as said carriers cool to form at least one stiffening layer; and extruding a polymer (72, 76) over said at least one stiffening layer to form a structural composite. rolling out a first carrier that is a fabric; dispersing filler onto said first carrier to form a mat; applying a binder to the mat; rolling out a second carrier on top of said filler, wherein said first carrier, said filler and said second carrier form said mat; heating said first carrier, said binder and said second carrier to liquefy said first carrier, said binder and said second carrier; pressing said mat, said binder, said first carrier and said second carrier together as said carriers cool to form at least one stiffening layer; and extruding a polymer (72, 76) over said at least one stiffening layer to form a structural composite.
A display method comprising: detecting, with a sensor, a gaze of an occupant of a vehicle, wherein the gaze is directed to at least one vehicle display; determining, with a controller circuit in communication with the sensor and the at least one vehicle display, whether one or more features presented on the at least one vehicle display are at least partially obstructed from a view of the occupant by a steering wheel of the vehicle; in accordance with the determination that the one or more features presented on the at least one vehicle display are at least partially obstructed from the view of the occupant, adjusting, with the controller circuit, a presentation of at least one partially obstructed feature to be viewable by the occupant. detecting, with a sensor, a gaze of an occupant of a vehicle, wherein the gaze is directed to at least one vehicle display; determining, with a controller circuit in communication with the sensor and the at least one vehicle display, whether one or more features presented on the at least one vehicle display are at least partially obstructed from a view of the occupant by a steering wheel of the vehicle; in accordance with the determination that the one or more features presented on the at least one vehicle display are at least partially obstructed from the view of the occupant, adjusting, with the controller circuit, a presentation of at least one partially obstructed feature to be viewable by the occupant.
A refrigeration cycle apparatus (100, 200, 300, 300A) which performs cooling by circulation of refrigerant, the refrigeration cycle apparatus (100, 200, 300, 300A) comprising: an evaporator arranged in a first space; a condenser arranged in a second space, wherein the temperature of the first space is higher than the temperature of the second space; a pump configured to compress the refrigerant from the condenser and output the refrigerant to the evaporator; a compressor configured to compress the refrigerant from the evaporator and output the refrigerant to the condenser; and a control device (30, 32, 33, 33A) configured to control the pump and the compressor to cool the first space, the control device (30, 32, 33, 33A) characterized by being configured to turn on the pump after turn-on of the compressor, control the pump to increase over time an amount of the refrigerant discharged per unit time by the pump after turn-on of the pump, and control the compressor to decrease over time an amount of the refrigerant discharged per unit time by the compressor after turn-on of the pump. an evaporator arranged in a first space; a condenser arranged in a second space, wherein the temperature of the first space is higher than the temperature of the second space; a pump configured to compress the refrigerant from the condenser and output the refrigerant to the evaporator; a compressor configured to compress the refrigerant from the evaporator and output the refrigerant to the condenser; and a control device (30, 32, 33, 33A) configured to control the pump and the compressor to cool the first space, the control device (30, 32, 33, 33A) characterized by being configured to turn on the pump after turn-on of the compressor, control the pump to increase over time an amount of the refrigerant discharged per unit time by the pump after turn-on of the pump, and control the compressor to decrease over time an amount of the refrigerant discharged per unit time by the compressor after turn-on of the pump. turn on the pump after turn-on of the compressor, control the pump to increase over time an amount of the refrigerant discharged per unit time by the pump after turn-on of the pump, and control the compressor to decrease over time an amount of the refrigerant discharged per unit time by the compressor after turn-on of the pump.
A method for machining a workpiece, in particular for a profiled leaf element of a window leaf frame, wherein the workpiece is first machined using a first machining device in order to produce a machined first surface to which an adhesive is to be applied, wherein the workpiece is machined further once the adhesive has been applied, characterised in that the first machining for producing the first surface also machines a second surface which is adjacent to the first surface, wherein the second surface is arranged in such a way that it corresponds substantially to a shadow area of the adhesive applied to the first surface.
An apparatus configured to produce a hologram of an object comprising: - an electromagnetic radiation assembly configured to receive an incoherent light from the object, diffract the received incoherent light, and transmit the diffracted incoherent light; and - an image capture assembly configured to capture a two-dimensional image of the diffracted incoherent light transmitted by the electromagnetic radiation assembly and to produce, from the captured two-dimensional image, the hologram of the object, which encodes three-dimensional or geometric information thereof, wherein the hologram is produced from incoherent light radiated from the object without requiring interference between light not scattered by the object with light scattered by the object, wherein the electromagnetic radiation assembly further comprises: a first transforming optical assembly configured to receive and transform the received incoherent light from the object and transmit a first transformed incoherent light, a complex mask assembly including at least one diffractive optical element configured to receive the first transformed incoherent light from the first transforming optical assembly, and transmit a complex masked electromagnetic radiation according to a complex transmission function, derived from a Fourier transform of a Fresnel Zone Plate and a second transforming optical assembly configured to receive and transform the complex masked electromagnetic radiation from the complex mask assembly, and transmit a second transformed incoherent light as the diffracted incoherent light, wherein the electromagnetic radiation assembly still further includes, upstream the first transforming optical assembly, an objective-side optical assembly to adjust the two-dimensional image. - an electromagnetic radiation assembly configured to receive an incoherent light from the object, diffract the received incoherent light, and transmit the diffracted incoherent light; and - an image capture assembly configured to capture a two-dimensional image of the diffracted incoherent light transmitted by the electromagnetic radiation assembly and to produce, from the captured two-dimensional image, the hologram of the object, which encodes three-dimensional or geometric information thereof, a first transforming optical assembly configured to receive and transform the received incoherent light from the object and transmit a first transformed incoherent light, a complex mask assembly including at least one diffractive optical element configured to receive the first transformed incoherent light from the first transforming optical assembly, and transmit a complex masked electromagnetic radiation according to a complex transmission function, derived from a Fourier transform of a Fresnel Zone Plate and a second transforming optical assembly configured to receive and transform the complex masked electromagnetic radiation from the complex mask assembly, and transmit a second transformed incoherent light as the diffracted incoherent light,
An electronic device comprising a housing and equipment likely to generate vibration and fastened to the housing, the equipment being provided with at least two pairs of elastomer dampers fastened to the equipment so as to be parallel to one another, the dampers in each pair of dampers being arranged on either side of the equipment and in alignment on a common axis (X, X'), the housing having two parallel strips projecting from a bottom of the housing and each presenting an edge into which notches (10, 20) open out, the notches having terminal portions forming receptacles for the elastomer dampers in such a manner that the common axis (X, X') is substantially perpendicular to the strips, the device being characterized in that the housing is made of plastics material, the notches comprising two first notches facing each other, each of which is arranged in a respective strip and each of which has an end portion opening out into the receptacle and forming a non-zero angle with a direction perpendicular to the bottom of the housing, and two second notches facing each other and each arranged in a respective strip so as to extend in the direction perpendicular to the bottom of the housing.