mhurhangee/ep-ind-claims huggingface dataset:
A tuning method for a collimator of a CT machine, the CT machine comprising an anode plate, the collimator comprising a slot plate and a controller, wherein the tuning method, in each cycle of an X-ray scan operation and a stop, comprises: a detection step of determining whether an X-ray is generated from the anode plate; if an X-ray is detected in the detection step, the controller calculates a Z-direction heating displacement Δ z Thermal α of the slot plate during the current scan, wherein a indicates the current cycle; the controller drives the slot plate to move by the heating displacement in the Z-direction; if no X-ray is detected in the detection step, the controller calculates a total Z-direction heating displacement Δ z Thermal α of the slot plate at the end of the current scan; the controller, on the basis of the stop time of the X-ray, calculates a cooling displacement z Thermal α ′ of the slot plate during the current stop; and the controller drives the slot plate to move. a detection step of determining whether an X-ray is generated from the anode plate; if an X-ray is detected in the detection step, the controller calculates a Z-direction heating displacement Δ z Thermal α of the slot plate during the current scan, wherein a indicates the current cycle; the controller drives the slot plate to move by the heating displacement in the Z-direction; if no X-ray is detected in the detection step, the controller calculates a total Z-direction heating displacement Δ z Thermal α of the slot plate at the end of the current scan; the controller, on the basis of the stop time of the X-ray, calculates a cooling displacement z Thermal α ′ of the slot plate during the current stop; and the controller drives the slot plate to move.
Seeder configured to deposit seeds in trays or substrate in a pattern of seed positions, comprising: - a seed supply; - a conveyor configured to transfer seeds from the seed supply, with the seeds organized in the pattern of seed positions defined by seed holding positions of the conveyor, to the trays or substrate and release extracted seeds in the pattern of seed positions into the trays or substrate, - at least one detector comprising at least a light source, such as a light beam and/or an array of LED's, and a sensor, such as at least one camera and/or a line scanner, and configured to detect seeds at seed holding positions of the conveyor in transfer from the seed supply to the trays or substrate and generate a signal, wherein the light source is obliquely oriented at seed holding positions of the conveyor, relative to a surface of the conveyor, to generate grazing light on or over the conveyor, for seeds to cast detectable shadows on the surface of the conveyor, and the sensor is oriented at the surface of the conveyor to detect shadows on the conveyor, cast by seeds at seed holding positions. - a seed supply; - a conveyor configured to transfer seeds from the seed supply, with the seeds organized in the pattern of seed positions defined by seed holding positions of the conveyor, to the trays or substrate and release extracted seeds in the pattern of seed positions into the trays or substrate, - at least one detector comprising at least a light source, such as a light beam and/or an array of LED's, and a sensor, such as at least one camera and/or a line scanner, and configured to detect seeds at seed holding positions of the conveyor in transfer from the seed supply to the trays or substrate and generate a signal,
A vehicle drive system for a vehicle, the vehicle drive system (310, 1210, 1310) for use with an internal combustion engine (320, 1220, 1320), a power take-off (340, 1240, 1340), and a transmission (330, 1230, 1330), the power take-off (340, 1240, 1340) being driven by the transmission (330, 1230, 1330), the vehicle drive system (310, 1210, 1310) comprising: a first electric motor (350, 1250, 1350) mechanically in series with the internal combustion engine (320, 1220, 1320) and the transmission (330, 1230, 1330); an electronic rechargeable energy source (370A, 1270, 1370) electrically coupled to the first electric motor (350, 1250, 1350); a fluid motor (360, 1260, 1360) in mechanical communication with the power take-off (340, 1240, 1340); and characterized in that a rechargeable tank (390, 1290, 1390) is in fluid communication with the fluid motor (360, 1260, 1360), wherein the first electric motor (350, 1250, 1350) is configured to provide power through the transmission (330, 1230, 1330) and the power take-off (340, 1240, 1340) to the fluid motor (360, 1260, 1360), wherein the fluid motor (360, 1260, 1360) is configured to provide power to the rechargeable tank (390, 1290, 1390). a first electric motor (350, 1250, 1350) mechanically in series with the internal combustion engine (320, 1220, 1320) and the transmission (330, 1230, 1330); an electronic rechargeable energy source (370A, 1270, 1370) electrically coupled to the first electric motor (350, 1250, 1350); a fluid motor (360, 1260, 1360) in mechanical communication with the power take-off (340, 1240, 1340); and characterized in that a rechargeable tank (390, 1290, 1390) is in fluid communication with the fluid motor (360, 1260, 1360), wherein the first electric motor (350, 1250, 1350) is configured to provide power through the transmission (330, 1230, 1330) and the power take-off (340, 1240, 1340) to the fluid motor (360, 1260, 1360), wherein the fluid motor (360, 1260, 1360) is configured to provide power to the rechargeable tank (390, 1290, 1390).
A method of dynamically allocating system resources in a wireless networking environment, comprising: transmitting a non-supplemental assignment to at least one mobile device connected to a wireless network to assign an initial set of resources to the at least one mobile device; determining whether the at least one mobile device requires additional resources; generating a supplemental assignment that assigns at least one additional resource to the at least one mobile device; and transmitting the supplemental assignment to the at least one mobile device to augment a resource set assigned to the at least one mobile device. transmitting a non-supplemental assignment to at least one mobile device connected to a wireless network to assign an initial set of resources to the at least one mobile device; determining whether the at least one mobile device requires additional resources; generating a supplemental assignment that assigns at least one additional resource to the at least one mobile device; and transmitting the supplemental assignment to the at least one mobile device to augment a resource set assigned to the at least one mobile device.
A method of reading a plurality of encoded microvessels used in an assay for biological or chemical analysis, the method comprising: providing a plurality of encoded microvessels in a liquid that surrounds the microvessels, the microvessels each comprising a respective microbody having a spatial size with a total volume that is less than or equal to 10 microliters, each of the microbodies comprising a chamber in the core of the microbody which defines a reservoir configured to hold a biological or chemical substance therein, each microbody being comprised of a transparent material that surrounds the chamber in the core of the microbody defining the reservoir and which facilitates detection of an optical characteristic of the substance within the chamber in the core of the microbody, wherein the microbody includes an identifiable code associated with the substance; separating the plurality of encoded microvessels into individual microvessels each in a respective individual compartment so that the microvessels are isolated from each other; and determining the corresponding identifiable codes of the microvessels. providing a plurality of encoded microvessels in a liquid that surrounds the microvessels, the microvessels each comprising a respective microbody having a spatial size with a total volume that is less than or equal to 10 microliters, each of the microbodies comprising a chamber in the core of the microbody which defines a reservoir configured to hold a biological or chemical substance therein, each microbody being comprised of a transparent material that surrounds the chamber in the core of the microbody defining the reservoir and which facilitates detection of an optical characteristic of the substance within the chamber in the core of the microbody, wherein the microbody includes an identifiable code associated with the substance; separating the plurality of encoded microvessels into individual microvessels each in a respective individual compartment so that the microvessels are isolated from each other; and determining the corresponding identifiable codes of the microvessels.
A control method for an air conditioning system, the air conditioning system comprising compressors and/or injectors, and the control method comprising: S 100, acquiring an actual cooling/heating capacity output by the air conditioning system, and acquiring an actual temperature change rate of an indoor heat exchange unit; 5200, automatically learning a heat exchange load characteristic curve of the indoor heat exchange unit based on the actual cooling/heating capacity and the actual temperature change rate; S300, acquiring a steady state load and/or a desired load of the indoor heat exchange unit based on the heat exchange load characteristic curve, wherein the steady state load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is 0, and the desired load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is a desired temperature change rate; and S400, adjusting the number of operating compressors out of said compressors and rotational speeds of said compressors, and/or adjusting the number of operating injectors out of said injectors and opening degrees of said injectors, based on the steady state load and/or the desired load S 100, acquiring an actual cooling/heating capacity output by the air conditioning system, and acquiring an actual temperature change rate of an indoor heat exchange unit; 5200, automatically learning a heat exchange load characteristic curve of the indoor heat exchange unit based on the actual cooling/heating capacity and the actual temperature change rate; S300, acquiring a steady state load and/or a desired load of the indoor heat exchange unit based on the heat exchange load characteristic curve, wherein the steady state load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is 0, and the desired load is the actual cooling/heating capacity corresponding to the point where the actual temperature change rate on the heat exchange load characteristic curve is a desired temperature change rate; and S400, adjusting the number of operating compressors out of said compressors and rotational speeds of said compressors, and/or adjusting the number of operating injectors out of said injectors and opening degrees of said injectors, based on the steady state load and/or the desired load
Self-powered detection device comprising at least a non-volatile memory cell (24, T1; 72, 74, 80) and a sensor (10,16) which is activated by a physical or chemical action or phenomenon, this sensor forming an energy harvester that transforms energy from said physical or chemical action or phenomenon into an electrical stimulus pulse, said memory cell being arranged for storing, by using only the electrical power of said electrical stimulus pulse, at least a bit of information relative to the detection by said sensor of at least a first physical or chemical action or phenomenon applied to said sensor with at least a given strength or intensity, characterized in that said non-volatile memory cell is formed by a FET transistor having a control gate, a first diffusion defining a first input (input 1) and a second diffusion defining a second input (input 2), and in that this FET transistor is set to its written logical state from its initial logical state when, in a detection mode of the self-powered detection device, it receives on a set terminal, among said control gate and said first and second inputs, a voltage stimulus signal generated by said sensor as a result of said first physical or chemical action or phenomenon applied to said sensor.
Method of producing a substrate with a glass-based coating comprising the following steps: - providing a substrate; - preparing a paste from a glass frit to which ferromagnetic pigments and a flux agent are admixed so that the paste has a solid proportion of 10-45 wt.-%, preferably of 15-35 wt.-% of ferromagnetic pigments, and so that the paste has a viscosity in the range of 10 to 1000 cP (0.01 - 1 Pas) at 140 rpm; - applying the paste onto a surface of the substrate; - aligning the paste by means of a magnetic field; and - burning-in the paste; - wherein as ferromagnetic pigments iron-containing pigments are added which may further comprise O, Mn, Cr, Co, Ni, Zn and/or Ti. - providing a substrate; - preparing a paste from a glass frit to which ferromagnetic pigments and a flux agent are admixed so that the paste has a solid proportion of 10-45 wt.-%, preferably of 15-35 wt.-% of ferromagnetic pigments, and so that the paste has a viscosity in the range of 10 to 1000 cP (0.01 - 1 Pas) at 140 rpm; - applying the paste onto a surface of the substrate; - aligning the paste by means of a magnetic field; and - burning-in the paste; - wherein as ferromagnetic pigments iron-containing pigments are added which may further comprise O, Mn, Cr, Co, Ni, Zn and/or Ti.
A magnetic tunnel junction element including a ferromagnetic layer with at least two interfaces that produce interfacial perpendicular anisotropy, comprising: (a) a tunnel barrier layer; (b) the ferromagnetic layer that has a first interface with said tunnel barrier layer and a second interface with a perpendicular Hk enhancing layer formed on a surface of the ferromagnetic layer that is opposite a surface adjoining the tunnel barrier layer, the ferromagnetic layer comprises a first glassing agent concentration in a middle portion thereof and a second glassing agent concentration less than the first glassing agent concentration but greater than zero in portions (33, 35) of the ferromagnetic layer proximate to the first and second interfaces; and (c) the perpendicular Hk enhancing layer characterized in that the middle portion of the ferromagnetic layer is amorphous and the portions proximate to the first and second interfaces are crystalline, and wherein the middle portion and portions proximate to the first and second interfaces are comprised of an alloy of two or more of Co, Fe, Ni, and B. (a) a tunnel barrier layer; (b) the ferromagnetic layer that has a first interface with said tunnel barrier layer and a second interface with a perpendicular Hk enhancing layer formed on a surface of the ferromagnetic layer that is opposite a surface adjoining the tunnel barrier layer, the ferromagnetic layer comprises a first glassing agent concentration in a middle portion thereof and a second glassing agent concentration less than the first glassing agent concentration but greater than zero in portions (33, 35) of the ferromagnetic layer proximate to the first and second interfaces; and (c) the perpendicular Hk enhancing layer
A device for applying actinic radiation to a curable resin comprising: a) a housing having a front face; b) an actinic radiation source arranged within the housing such that actinic radiation emerges from the housing through the front face; and c) a proximity detector; characterized in that the proximity detector is functionally connected to the actinic radiation source such that the actinic radiation source is shut off unless the proximity detector detects the presence of a surface within a safe distance from the front face and wherein the safe distance is always a distance less than 13 cm, and wherein the device is configured to apply actinic radiation at a target intensity greater than 3 W/cm 2 to a surface located 3 cm from the front face. a) a housing having a front face; b) an actinic radiation source arranged within the housing such that actinic radiation emerges from the housing through the front face; and c) a proximity detector;
Electrical energy regeneration module intended to be adapted to a variable speed drive, said variable speed drive comprising: - three input phases (R, S, T), connected to an electrical distribution network, - a rectifier stage connected to the three input phases, - a DC power supply bus comprising a first power supply line and a second power supply line between which is applied a DC voltage supply as output by the rectifier stage, - an inverter stage intended to be connected as input to the DC power supply bus and as output to an electrical load, said module being characterized in that it comprises: - a first input terminal (d) and a second input terminal (e) intended to be each connected to a power supply line of the DC power supply bus of the variable speed drive, - three output terminals (a, b, c) intended to be connected to the three input phases (R, S, T) of the variable speed drive, - a voltage converter connected to the two input terminals (d, e) and comprising, at the output, an inductor so as to form a current source in order to control the braking current of the electrical load, the converter performing a function of conversion of the DC voltage available on the DC power supply bus into a DC current, - a switching circuit connected directly to said inductor and intended to switch the braking current (I brake) to one of the three output terminals (a, b, c), the switching circuit performing a conversion between the DC current and the alternating voltage of the electrical distribution network. - three input phases (R, S, T), connected to an electrical distribution network, - a rectifier stage connected to the three input phases, - a DC power supply bus comprising a first power supply line and a second power supply line between which is applied a DC voltage supply as output by the rectifier stage, - an inverter stage intended to be connected as input to the DC power supply bus and as output to an electrical load, - a first input terminal (d) and a second input terminal (e) intended to be each connected to a power supply line of the DC power supply bus of the variable speed drive, - three output terminals (a, b, c) intended to be connected to the three input phases (R, S, T) of the variable speed drive, - a voltage converter connected to the two input terminals (d, e) and comprising, at the output, an inductor so as to form a current source in order to control the braking current of the electrical load, the converter performing a function of conversion of the DC voltage available on the DC power supply bus into a DC current, - a switching circuit connected directly to said inductor and intended to switch the braking current (I brake) to one of the three output terminals (a, b, c), the switching circuit performing a conversion between the DC current and the alternating voltage of the electrical distribution network.
A bonnet latch bracket arrangement (4, 4') for a vehicle (2, 2'), which arrangement (4, 4') is adaptable to different vehicle models, said arrangement (4, 4') comprising - a bonnet latch, - a bracket member (14, 14'), and - a vehicle body member, said bonnet latch being attachable to said vehicle body member by means of said bracket member (14, 14'), said bracket member (14, 14') being adapted to take up dimensional differences between said bonnet latch and said vehicle body member in a longitudinal (x), lateral (y) and/or height (z) direction of said vehicle (2, 2'), and the geometry of said bracket member (14, 14') being adapted according to the dimensions of said vehicle (2, 2'), said vehicle body member being a cross member adapted to be located at the front of said vehicle, characterized in that said bracket member (14, 14') in addition is adapted to be attached to a side beam of said vehicle (2, 2'). - a bonnet latch, - a bracket member (14, 14'), and - a vehicle body member,
A suitcase, having at least two baggage item portions (2,4), wherein said baggage item portions (2,4) each comprise at least one baggage item wall having at least one baggage item wall inner face (3,5) and at least one baggage item wall outer face (5,7), wherein at least one baggage item portion (2,4) comprises at least one corner, wherein, at said at least one corner of at least one baggage item portion (2,4) a corner reinforcement (14,15) is provided at said baggage item wall inner face (3,5), the corner reinforcement (14,15) comprises an inner face (22,28) and an outer face (16,26), wherein said outer face (16,26) of said corner reinforcement (14,15) is attached to the baggage item wall inner face (3,5) at the corner of the baggage item (2,4), wherein the contour of said outer face (16,26) is adapted to the shape of said corner at said baggage item wall inner face (3,5), wherein the corner reinforcement (14,15) comprises a reinforcement contour (23,29) at the inner face (22,28), characterized in that the reinforcement contour (23,29) is defined by at least one rib-shaped raised portion (24,30,31) at the inner face (22,28) of the corner reinforcement (14,15).
A solar cell module comprising: a plurality of solar cells; a wiring member configured to electrically connect the plurality of solar cells to each other; and a sealant with which the plurality of solar cells are sealed, wherein one solar cell included in the plurality of solar cells includes a photoelectric conversion body configured to generate a light generation carrier by receiving light, and a connection electrode formed on the photoelectric conversion body and connected to the wiring member; the wiring member is connected onto the connection electrode through a resin adhesive; and the connection electrode includes a plurality of projections which are in direct contact with the wiring member; characterised in that: the plurality of projections include a plurality of first projections and a plurality of second projections taller than the plurality of first projections; and parts of the respective plurality of second projections bite into the wiring member. a plurality of solar cells; a wiring member configured to electrically connect the plurality of solar cells to each other; and a sealant with which the plurality of solar cells are sealed, wherein one solar cell included in the plurality of solar cells includes a photoelectric conversion body configured to generate a light generation carrier by receiving light, and a connection electrode formed on the photoelectric conversion body and connected to the wiring member; a photoelectric conversion body configured to generate a light generation carrier by receiving light, and a connection electrode formed on the photoelectric conversion body and connected to the wiring member; the wiring member is connected onto the connection electrode through a resin adhesive; and the connection electrode includes a plurality of projections which are in direct contact with the wiring member; characterised in that: the plurality of projections include a plurality of first projections and a plurality of second projections taller than the plurality of first projections; and parts of the respective plurality of second projections bite into the wiring member. the plurality of projections include a plurality of first projections and a plurality of second projections taller than the plurality of first projections; and parts of the respective plurality of second projections bite into the wiring member.