mhurhangee/ep-ind-claims huggingface dataset:
A device allowing the displacement of a first movable element around a point according to three degrees of freedom in rotation and the rotation of a second movable element relative to the first movable element according to one degree of freedom, including at least one base element, at least two elements (5, 6), at least four actuators each including a fixed part and a movable part, the fixed part of each actuator being integral with the base element, the movable part of each of them being made integral with a connecting element by means of a hinge, the connecting elements being mounted in a hinged manner (5a, 6a) on one of the movable elements (5, 6), at least one of the connecting elements being mounted in a hinged manner on the first movable element, at least one of the connecting elements being mounted in a hinged manner on the second movable element, the first movable element being mounted in a hinged manner on the base element, the movable elements (5, 6) being mounted in rotation with each other, the hinges (3a, 5a, 6a) being arranged so that the rotation of the first movable element according to three degrees of freedom as well as the rotation between the movable elements (5, 6) can be controlled via the connecting elements by the displacement of the movable parts of the actuators, the actuators being piloted by a management computer.
Method for optimising an operating parameter of a combine harvester, comprising the following steps: (a) driving the combine harvester over a field at an at least approximately constant speed and/or constant throughput, at least until a processing procedure of the combine harvester has stabilized; (b) acquiring and storing in a processing unit data with regard to at least one sensor value for a parameter of the processing procedure in the combine harvester and the associated position of the combine harvester; (c) transmitting the data with regard to the position to a handheld device equipped with a camera and a position determining device; (d) moving the handheld device to the position and recording an image of the field ground with the camera; (e) processing the image in order to determine a property of the image; (f) determining a calibration value by means of the processing unit by using the sensor value and the property; (g) and determining and displaying and/or automatically adjusting an operating value of the combine harvester by means of the processing unit by using current sensor values and the calibration value, wherein the operating value is the operating parameter of the combine harvester that is adjustable during operation, or the displayed operating value represents a result of the operation of the combine harvester and can be used by the operator to adjust the operating parameter. (a) driving the combine harvester over a field at an at least approximately constant speed and/or constant throughput, at least until a processing procedure of the combine harvester has stabilized; (b) acquiring and storing in a processing unit data with regard to at least one sensor value for a parameter of the processing procedure in the combine harvester and the associated position of the combine harvester; (c) transmitting the data with regard to the position to a handheld device equipped with a camera and a position determining device; (d) moving the handheld device to the position and recording an image of the field ground with the camera; (e) processing the image in order to determine a property of the image; (f) determining a calibration value by means of the processing unit by using the sensor value and the property; (g) and determining and displaying and/or automatically adjusting an operating value of the combine harvester by means of the processing unit by using current sensor values and the calibration value, wherein the operating value is the operating parameter of the combine harvester that is adjustable during operation, or the displayed operating value represents a result of the operation of the combine harvester and can be used by the operator to adjust the operating parameter.
A cooling device that incorporates a motor accountable for the refrigeration cycle and fed from a power supply, for instance the network voltage, comprising a motor control unit that comprises an inverter circuit, which is configured to provide the control of the motor and to adjust the frequency of the motor to the desired frequency, a switching unit, which is configured to transmit the voltage from the power supply to the motor, and a thermostat, which depending on the perceived temperature level, is configured to trigger the switching unit and/or the inverter circuit and hence to enable the motor to be driven first by the network voltage and then by the inverter circuit, characterized in that the thermostat is further is configured; when a lower temperature level (Tlow) is perceived inside the cooling device, to transmit this temperature level (Tlow) to the inverter circuit by producing a signal, to disconnect the motor, to stimulate the switching unit to switch the motor to a position where it is driven by the network voltage via the thermostat itself and; when an upper temperature level (Tup) is perceived inside the cooling device, to transmit this temperature level (Tup) to the inverter circuit by producing a signal, if the motor is not already in operation at this temperature level (Tup), to start the motor to be driven initially by the network voltage and hence to start the refrigeration process inside the cooling device, to trigger the inverter circuit to drive the motor at higher speeds to obtain more freezing and; when a temperature level between the lower temperature level (Tlow) and the upper temperature level (Tup) is perceived inside the cooling device, to transmit this temperature level to the inverter circuit by producing a signal, not to intervene in the inverter circuit or in the switching circuit until the temperature level reaches the lower temperature level (Tlow) or the upper temperature level (Tup).
A cartridge insertable into a vaporizer device, the cartridge comprising: a body including a storage compartment configured to hold a vaporizable material, the body having a first end and a second end opposite the first end, the body having a mouthpiece positioned at the first end and the second end being configured for insertion into a receptacle of the vaporizer device; a heating chamber including a heating element configured to vaporize the vaporizable material; a vapor tube extending between the heating element and the mouthpiece; a seal insertable at the second end within the storage compartment of the body, the seal configured to retain the vaporizable material within the storage compartment and including a well for retaining the heating element and interior surfaces inclined from a distal end of the seal toward the well for funneling the flow of the vaporizable material within the storage compartment towards the well; and a cap insertable at the second end for retaining the seal within the storage compartment. a body including a storage compartment configured to hold a vaporizable material, the body having a first end and a second end opposite the first end, the body having a mouthpiece positioned at the first end and the second end being configured for insertion into a receptacle of the vaporizer device; a heating chamber including a heating element configured to vaporize the vaporizable material; a vapor tube extending between the heating element and the mouthpiece; a seal insertable at the second end within the storage compartment of the body, the seal configured to retain the vaporizable material within the storage compartment and including a well for retaining the heating element and interior surfaces inclined from a distal end of the seal toward the well for funneling the flow of the vaporizable material within the storage compartment towards the well; and a cap insertable at the second end for retaining the seal within the storage compartment.
A method for improving a channel change response time, comprising: generating, from an original media stream conveying media content, at least one auxiliary media stream, each of the at least one auxiliary media stream conveying the media content of the original media stream, each of the at least one auxiliary media stream being offset in time with respect to the original media stream, wherein each of the at least one auxiliary media stream initially lags the original media stream; propagating the original media stream and the at least one auxiliary media stream toward at least one user terminal using respective multicast groups; generating a meta channel associated with the original media stream and the at least one auxiliary media stream for conveying information adapted for use in selecting one of the original media stream and the at least one auxiliary media stream in response to a channel change request from the at least one user terminal; and propagating the meta channel toward the at least one user terminal; wherein sizes of group of pictures, 'GOP', of the at least one auxiliary media stream are compressed in terms of time so that the at least one auxiliary media stream changes from lagging the original media stream in time to leading the original media stream in time. generating, from an original media stream conveying media content, at least one auxiliary media stream, each of the at least one auxiliary media stream conveying the media content of the original media stream, each of the at least one auxiliary media stream being offset in time with respect to the original media stream, wherein each of the at least one auxiliary media stream initially lags the original media stream; propagating the original media stream and the at least one auxiliary media stream toward at least one user terminal using respective multicast groups; generating a meta channel associated with the original media stream and the at least one auxiliary media stream for conveying information adapted for use in selecting one of the original media stream and the at least one auxiliary media stream in response to a channel change request from the at least one user terminal; and propagating the meta channel toward the at least one user terminal; wherein sizes of group of pictures, 'GOP', of the at least one auxiliary media stream are compressed in terms of time so that the at least one auxiliary media stream changes from lagging the original media stream in time to leading the original media stream in time.
A method of holographic projection, the method comprising: (i) receiving an image for projection; (ii) forming an image frame comprising a first image region and second image region, wherein the first image region corresponds to the image and the second image region corresponds to non-image content; (iii) applying a first gain factor to the non-image content in order to change a grey level of the non-image content of the image frame; (iv) calculating a hologram of the image frame; (v) displaying the hologram and illuminating the hologram with light from a light source to form a holographic reconstruction of the image frame; (vi) measuring a parameter representative of the luminance of the holographic reconstruction of the non-image content; (vii) scaling the measured parameter in accordance with an inverse of the first gain factor, to obtain a parameter value that is representative of a true luminance of the holographic reconstruction of the non-image content, wherein the true luminance comprises an amount of luminance that the secondary region would have exhibited, had the gain factor not being applied to the secondary image region, before the corresponding hologram was generated and illuminated; and (viii) controlling the optical power of the light illuminating the hologram until the true luminance of the holographic reconstruction of the non-image content indicates that a target luminance is met, for the holographic reconstruction of the image content of the image frame. (i) receiving an image for projection; (ii) forming an image frame comprising a first image region and second image region, wherein the first image region corresponds to the image and the second image region corresponds to non-image content; (iii) applying a first gain factor to the non-image content in order to change a grey level of the non-image content of the image frame; (iv) calculating a hologram of the image frame; (v) displaying the hologram and illuminating the hologram with light from a light source to form a holographic reconstruction of the image frame; (vi) measuring a parameter representative of the luminance of the holographic reconstruction of the non-image content; (vii) scaling the measured parameter in accordance with an inverse of the first gain factor, to obtain a parameter value that is representative of a true luminance of the holographic reconstruction of the non-image content, wherein the true luminance comprises an amount of luminance that the secondary region would have exhibited, had the gain factor not being applied to the secondary image region, before the corresponding hologram was generated and illuminated; and (viii) controlling the optical power of the light illuminating the hologram until the true luminance of the holographic reconstruction of the non-image content indicates that a target luminance is met, for the holographic reconstruction of the image content of the image frame.
- Method for producing an opaque single-layer container by injection, injection-blowing, extrusion-blowing or compression-blowing intended to contain photosensitive substances, comprising a thermoplastic matrix and opacifying material dispersed in the thermoplastic matrix, wherein the thermoplastic matrix is polyethylene terephthalate, polyethylene, polypropylene, polylactic acid, polyethylene naphthalate, polyamide or a mix of any of these, and wherein the opacifying material comprises aluminium metal Al between 0,5% and 2.0% by weight of Al in relation to the total weight of the container, the method being characterised by the following steps: a) choosing a shield parameter TR having a level of transmission between 10% to 0%; b) defining the coefficient F being in the range between 0.06 < F < 1.00 by using the curve shown in Figure 4; c) choosing an average thickness of the container wall in the range between 0,12 mm < Ep < 0,5 mm; d) calculating the weight % of opacifying material by dividing the coefficient F by the average thickness Ep of the container wall as defined in step c) in mm. a) choosing a shield parameter TR having a level of transmission between 10% to 0%; b) defining the coefficient F being in the range between 0.06 < F < 1.00 by using the curve shown in Figure 4; c) choosing an average thickness of the container wall in the range between 0,12 mm < Ep < 0,5 mm; d) calculating the weight % of opacifying material by dividing the coefficient F by the average thickness Ep of the container wall as defined in step c) in mm.
A hydraulic system to activate the hydraulic actuators (3; 3a, 3b) of an operating machine; the hydraulic system comprises: a first high-pressure oil delivery; an oil drain; a first slide valve (9; 9a), which comprises a first spool (12; 12a) axially sliding and suited to control a first hydraulic actuator (3; 3a); a second low-pressure oil delivery; an activation valve; the hydraulic system comprising a first bidirectional valve (21; 21a) having a first passage opening (22; 22a) that can be hydraulically connected, by means of the first slide valve (9; 9a) to the first delivery and a second passage opening (23; 23a) hydraulically connected to the first actuator (3; 3a); wherein the first bidirectional valve (21; 21a) has an inlet opening (24; 24a) that can be connected, by means of the activation valve, to the second delivery and characterised in that the first bidirectional valve (21;21a) also comprises an outlet opening (25; 25a) that can be connected, by means of the first spool (12; 12a) to the drain. a first high-pressure oil delivery; an oil drain; a first slide valve (9; 9a), which comprises a first spool (12; 12a) axially sliding and suited to control a first hydraulic actuator (3; 3a); a second low-pressure oil delivery; an activation valve; the hydraulic system comprising a first bidirectional valve (21; 21a) having a first passage opening (22; 22a) that can be hydraulically connected, by means of the first slide valve (9; 9a) to the first delivery and a second passage opening (23; 23a) hydraulically connected to the first actuator (3; 3a); wherein the first bidirectional valve (21; 21a) has an inlet opening (24; 24a) that can be connected, by means of the activation valve, to the second delivery and characterised in that the first bidirectional valve (21;21a) also comprises an outlet opening (25; 25a) that can be connected, by means of the first spool (12; 12a) to the drain.
An energy handling system for converting, storing or transmitting energy, the energy handling system comprising a heat exchange unit for exchanging heat between a first substance and a second substance, the heat exchange unit comprising a first inner compartment and a second outer compartment, the first inner compartment and the second outer compartment being positioned adjacent each other and being separated by a heat exchange surface, a balloon being mounted in the first inner compartment so as to form in the first inner compartment a hermetically sealed volume between the outer surface of the balloon and the heat exchange surface, the hermetically sealed volume being filled with the first substance, the balloon being configured for being filled with a balloon fluid the second outer compartment being filled with the second substance, wherein the area of the heat exchange surface that is in contact with the first substance and a second substance remains substantially the same during the heat exchange process. a heat exchange unit for exchanging heat between a first substance and a second substance, the heat exchange unit comprising a first inner compartment and a second outer compartment, the first inner compartment and the second outer compartment being positioned adjacent each other and being separated by a heat exchange surface, a balloon being mounted in the first inner compartment so as to form in the first inner compartment a hermetically sealed volume between the outer surface of the balloon and the heat exchange surface, the hermetically sealed volume being filled with the first substance, the balloon being configured for being filled with a balloon fluid the second outer compartment being filled with the second substance, wherein the area of the heat exchange surface that is in contact with the first substance and a second substance remains substantially the same during the heat exchange process.
A multiple layer test cartridge (100, 300) comprising: an input opening (110, 310) to receive a sample containing cells; multiple lysing channel structures (130, 135, 140, 145, 330, 335, 340, 350, 355, 360) adapted to receive the sample from the input opening (110, 310) and successively formed on different polymer layers of the multiple layer test cartridge and coupled to each other to pass the sample in sequence between the lysing channel structures to provide microfluidic chaotic mixing structures that provide for repeated splitting, turning and recombining of the sample; wherein each lysing channel structure (130, 135, 140, 145, 330, 335, 340, 350, 355, 360) has a letter "F" shape (200, 400) comprising a straight backbone channel having a base portion and a top portion with two equal length, parallel side channels (210, 215) extending orthogonally from the top portion of the backbone channel, the lysing channel structures (130, 135, 140, 145) are arranged so that a first lysing channel structure receives the sample at ends of both side channels (210, 215) distal from its backbone, and a second lysing channel structure is positioned on a different layer from the first lysing channel structure and has ends (225, 230) of both side channels (210, 215) coupled to receive the sample from the base portion of the backbone of the first channel structure; and a test chamber (150, 370) adapted to receive the sample from the multiple lysing channel structures (130, 135, 140, 145, 330, 335, 340, 350, 355, 360). an input opening (110, 310) to receive a sample containing cells; multiple lysing channel structures (130, 135, 140, 145, 330, 335, 340, 350, 355, 360) adapted to receive the sample from the input opening (110, 310) and successively formed on different polymer layers of the multiple layer test cartridge and coupled to each other to pass the sample in sequence between the lysing channel structures to provide microfluidic chaotic mixing structures that provide for repeated splitting, turning and recombining of the sample; wherein each lysing channel structure (130, 135, 140, 145, 330, 335, 340, 350, 355, 360) has a letter "F" shape (200, 400) comprising a straight backbone channel having a base portion and a top portion with two equal length, parallel side channels (210, 215) extending orthogonally from the top portion of the backbone channel, the lysing channel structures (130, 135, 140, 145) are arranged so that a first lysing channel structure receives the sample at ends of both side channels (210, 215) distal from its backbone, and a second lysing channel structure is positioned on a different layer from the first lysing channel structure and has ends (225, 230) of both side channels (210, 215) coupled to receive the sample from the base portion of the backbone of the first channel structure; and a test chamber (150, 370) adapted to receive the sample from the multiple lysing channel structures (130, 135, 140, 145, 330, 335, 340, 350, 355, 360).