mhurhangee/ep-ind-claims huggingface dataset:
A method for isolating a pathogen from a sample, the method comprising providing a vessel containing a sample that comprises a pathogen; removably coupling the vessel to a cartridge via a cartridge interface that is configured to provide communication between the vessel and the cartridge; flowing a plurality of magnetic particles from the cartridge into the vessel to thereby form a mixture in the vessel that comprises the sample and the magnetic particles, wherein a plurality of the particles are conjugated to a capture moiety specific to the pathogen; flowing the mixture from the vessel into the cartridge; flowing a fluid from the cartridge into the vessel to flush any residual mixture from the vessel into the cartridge; incubating the mixture in the cartridge to allow the particles to bind to the pathogen, thereby forming pathogen/magnetic particle complexes; applying a magnetic field to capture pathogen/magnetic particle complexes on a surface of a first magnetic trap; washing the captured pathogen/magnetic particle complexes with a wash solution, thereby isolating the pathogen/magnetic particle complexes; removing the magnetic field; re-introducing the wash solution, thereby re-suspending the pathogen/magnetic particle complexes; flowing the resuspended pathogen/magnetic particle complexes from the first magnetic trap through a channel and into a second magnetic trap; and engaging the second magnetic trap, thereby re-capturing the pathogen/magnetic particle complexes; wherein the first magnetic trap is configured to capture the pathogen/magnetic particle complexes from a macro-scale volume of fluid, and the second magnetic trap is configured to concentrate substantially all of the pathogen/magnetic particle complexes into a micro-scale volume of fluid.
A method of activating an electric machine; the electric machine comprising a stator, and a rotor which rotates about a first axis with respect to the stator; the stator comprising a plurality of stator segments arranged about the first axis; the rotor comprising modules made of magnetizable material and arranged about the first axis; and the method comprising the steps of connecting the rotor to the stator by means of a bearing; and characterized in that inserting a magnetizing device in a frame and inserting the frame inside a seat, designed for housing at least one of the stator segments, from the opposite side to the bearing; moving the magnetizing device in a direction parallel to the first axis, within the frame, in order to magnetize a number of modules of magnetizable material arranged about the first axis; and magnetizing said modules of magnetizable material when the rotor is connected to the stator.
A differential current transformer DCT specified for a set rated residual operating current value, comprising an iron core and a secondary coil wound on said iron core; wherein, said differential current transformer DCT is connected with a sampling circuit, and said sampling circuit is a sampling circuit dual-regulated by both load resistance and amplifier feedback loop resistance; wherein, said sampling circuit comprises the load resistance Z 1 connected to one end of said secondary coil, a differential amplifier connected to said load resistance Z 1 in series and the feedback resistor Z 2 positioned in said amplifier feedback loop; and wherein, the other end of the secondary coil and the non-inverting input of the amplifier are connected to a reference voltage; characterized in that the load resistance Z 1 and the feedback resistance Z 2 are adjustable resistors; said sampling circuit further comprises a first adjustable resistor Z connected respectively to both ends of the secondary coil, and a switch between the first adjustable resistor Z and the secondary coil; wherein, a rated residual operating current cut-off value I Δ is obtained according to the value I out_m of the amplifier output driving capability in the following equation, wherein when the set rated residual operating current value is smaller than or equal to the rated residual operating current cut-off value I Δ, said switch is turned off, and when the set rated residual operating current value is larger than the rated residual operating current cut-off value I Δ, said switch is turned on; I Δ = N 2 k 1 ⁢ k 2 ⋅ I out_m, wherein, N 2 is the number of turns of the secondary coil, k 1 is a virtual value coefficient for maximising the amplifier output, and k 2 is the largest value coefficient of a measurement range of the DCT.
A crane information display system that is provided with a terminal device, the terminal device mounting a camera and capturing an image of a crane with the camera to obtain a camera image, characterized in that the terminal device comprises: a crane detection unit that detects the crane in the camera image based on image information of the camera image; an information processing unit that identifies a position and a posture of the crane in a coordinate system of the camera image based on an orientation of the camera with respect to the crane identified from the crane in the camera image, a position of the camera in a real space indicated by a first satellite positioning signal reception unit mounted on the camera, and a position of the crane in a real space indicated by a second satellite positioning signal reception unit mounted on the crane; a working capacity calculation unit that calculates a working capacity of the crane based on information relating to the crane inputted to an input unit of the terminal device; and an image display unit that converts the working capacity of the crane into three-dimensional image information corresponding to the position and the posture of the crane identified by the information processing unit, overlays the image information on the camera image, and displays the overlaid image. a crane detection unit that detects the crane in the camera image based on image information of the camera image; an information processing unit that identifies a position and a posture of the crane in a coordinate system of the camera image based on an orientation of the camera with respect to the crane identified from the crane in the camera image, a position of the camera in a real space indicated by a first satellite positioning signal reception unit mounted on the camera, and a position of the crane in a real space indicated by a second satellite positioning signal reception unit mounted on the crane; a working capacity calculation unit that calculates a working capacity of the crane based on information relating to the crane inputted to an input unit of the terminal device; and an image display unit that converts the working capacity of the crane into three-dimensional image information corresponding to the position and the posture of the crane identified by the information processing unit, overlays the image information on the camera image, and displays the overlaid image.
Method for at least partly manufacturing a piece of apparel and in particular a shoe, comprising manipulating at least one component of the piece of apparel with a particle jamming device, wherein manipulating the at least one component of the piece of apparel with the particle jamming device comprises forming the at least one component of the piece of apparel over at least a portion of the surface of the particle jamming device, the particle jamming device being adapted to provide at least a portion of a reference body; and wherein the particle jamming device comprises a shoe last as the reference body.
A method of manufacturing an OLED device comprising the following steps: - a) providing an electrically conductive carrier substrate with a first carrier surface and a second carrier surface, - b) assembling on at least the first carrier surface a patterned layer of insulating material over an integral area, the layer of insulating material being patterned by a plurality of holes such that an electric access to the first carrier surface is possible from an upper surface of the layer of insulating material facing away from the first carrier surface, - c) assembling a patterned conductive coating (8, 9) on the insulating material at its upper surface such that the conductive coating (8, 9) enters the holes and covers the insulating material over an integral area, whereby the conductive coating is patterned such that a number of discrete first electrode areas are formed in the conductive coating, whereby patterning the conductive coating is carried out such that at least one discrete first electrode area is in galvanic contact with the conductive carrier substrate via a plurality of holes of the insulating material, whereby the plurality of holes is arranged to feed the at least one discrete first electrode area with electrical current at a plurality of feeding points for providing a more equal distribution of electric current all over the plane extension of the at least one discrete first electrode area, - d) applying an organic light-emitting layer above at least one first electrode area, - e) applying a second electrode layer above the organic light emitting layer. - a) providing an electrically conductive carrier substrate with a first carrier surface and a second carrier surface, - b) assembling on at least the first carrier surface a patterned layer of insulating material over an integral area, the layer of insulating material being patterned by a plurality of holes such that an electric access to the first carrier surface is possible from an upper surface of the layer of insulating material facing away from the first carrier surface, - c) assembling a patterned conductive coating (8, 9) on the insulating material at its upper surface such that the conductive coating (8, 9) enters the holes and covers the insulating material over an integral area, whereby the conductive coating is patterned such that a number of discrete first electrode areas are formed in the conductive coating, whereby patterning the conductive coating is carried out such that at least one discrete first electrode area is in galvanic contact with the conductive carrier substrate via a plurality of holes of the insulating material, whereby the plurality of holes is arranged to feed the at least one discrete first electrode area with electrical current at a plurality of feeding points for providing a more equal distribution of electric current all over the plane extension of the at least one discrete first electrode area, - d) applying an organic light-emitting layer above at least one first electrode area, - e) applying a second electrode layer above the organic light emitting layer.
Insulator for holding in position relative to a supporting structure a flexible fencing material such as wire, rope or tape comprising at least one electrical conductor, comprising: an insulating body from electrically insulating material with a passage having a circumference for receiving a portion located in the passage of fencing material extending through the passage, while the passage extends in an axial passage direction between opposite end surfaces of the insulating body, a metal reinforcing structure, characterized in that the metal reinforcing structure has an eye part extending around at least a part of the circumference of the passage, wherein the insulating body comprises a bushing from electrically insulating material, located within the eye part and extending at least around a part of the circumference of the passage, and wherein the insulating body comprises electrically insulating material molded to the bushing and the reinforcing structure. an insulating body from electrically insulating material with a passage having a circumference for receiving a portion located in the passage of fencing material extending through the passage, while the passage extends in an axial passage direction between opposite end surfaces of the insulating body, a metal reinforcing structure, characterized in that the metal reinforcing structure has an eye part extending around at least a part of the circumference of the passage, wherein the insulating body comprises a bushing from electrically insulating material, located within the eye part and extending at least around a part of the circumference of the passage, and wherein the insulating body comprises electrically insulating material molded to the bushing and the reinforcing structure.
A system comprising a standalone type reel holding device and a main-body-side reel holding section, wherein the standalone type reel holding device is configured to be set separately to a component mounter provided with a component supply device, the component supply device including multiple feeder devices (81, 82) configured to sequentially supply multiple components by feeding carrier tape in which the multiple components are held and the main-body-side reel holding section configured to hold multiple tape reels around which are wound the carrier tapes in a rotatable and exchangeable manner, the main-body-side reel holding section being provided separately to or integrated with the feeder device (81, 82), and the standalone type reel holding device includes reel storage sections (731, 732) which are each configured to hold separately-located tape reels different to the tape reels held by the main-body-side reel holding section in a rotatable and exchangeable manner, and is configured to supply the carrier tapes wound on the separately-located tape reels to the same feeder devices as the main-body-side reel holding section.
A collecting bag for human body wastes of the type comprising a bag member, a discharge portion including a discharge opening, and a first plate member (21; 121; 221) having a distal edge (21b; 121b; 221b) and a second plate member (22; 122; 222) having a proximal edge (22a; 122a; 222a), said discharge opening extending between said edges (21 b, 22a; 121 b, 122a; 222b, 222a), closure of the discharge opening being effected by folding the discharge portion in a longitudinal direction in order to bring the first plate member (21; 121; 221) into contact with the second plate member (22; 122; 222), characterized in that at least one of the edges (21 b, 22a; 121 b, 122a; 222b, 222a) of the plate members (21, 22; 121, 122; 221, 222) is provided with a fillet or chamfer (21 c, 22c; 121 c, 122c; 221 c, 222c), wherein the fillet or chamfer (221 c, 222c) extends in the entire thickness of said first and/or said second plate member (221, 222).
A method performed by a third node for controlling a packet transmission for a split bearer connected to a first node and a second node in a wireless communication system, the method comprising: obtaining information related to a buffer state for each of the first node and the second node; characterized in that the method further comprises: determining a packet arrival time at a terminal through each of the first node and the second node, based on the information related to the buffer state for each of the first node and the second node; selecting one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node; and transmitting a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer. obtaining information related to a buffer state for each of the first node and the second node; characterized in that the method further comprises: determining a packet arrival time at a terminal through each of the first node and the second node, based on the information related to the buffer state for each of the first node and the second node; selecting one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node; and transmitting a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer. determining a packet arrival time at a terminal through each of the first node and the second node, based on the information related to the buffer state for each of the first node and the second node; selecting one of the first node and the second node based on a comparison of a packet arrival time corresponding to the first node with a packet arrival time corresponding to the second node; and transmitting a packet to the terminal through the selected node, wherein the first node and the second node are associated with a radio link control, RLC, layer, and the third node is associated with a packet data convergence protocol, PDCP, layer.
A transmitter comprising: a first transmission circuit and a second transmission circuit having at least one common circuit; and a controller which generates first digital data, a plurality of first bits being arranged sequentially in the first digital data and outputs the first digital data to the first transmission circuit, and generates second digital data different from the first digital data, a plurality of second bits being arranged sequentially in the second digital data and outputs the second digital data to the second transmission circuit, wherein outputs of the first transmission circuit and the second transmission circuit are transmitted from a pair of antennas (41, 42) spatially orthogonal to each other to generate a radio wave having a polarized wave rotating orthogonally to a propagation direction, characterized in that the controller further generates digital data as the second digital data, having a part cyclically different from the first digital data, wherein the first digital data and the second digital data provide bit streams having the same odd bits and inverted even bits to be simultaneously output to the first transmission circuit and the second transmission circuit, respectively. a first transmission circuit and a second transmission circuit having at least one common circuit; and a controller which generates first digital data, a plurality of first bits being arranged sequentially in the first digital data and outputs the first digital data to the first transmission circuit, and generates second digital data different from the first digital data, a plurality of second bits being arranged sequentially in the second digital data and outputs the second digital data to the second transmission circuit, wherein outputs of the first transmission circuit and the second transmission circuit are transmitted from a pair of antennas (41, 42) spatially orthogonal to each other to generate a radio wave having a polarized wave rotating orthogonally to a propagation direction, characterized in that the controller further generates digital data as the second digital data, having a part cyclically different from the first digital data, wherein the first digital data and the second digital data provide bit streams having the same odd bits and inverted even bits to be simultaneously output to the first transmission circuit and the second transmission circuit, respectively.
An automated electrical connect/disconnect device for electrically connecting with and electrically disconnecting from a superconducting magnet winding, the device comprising: a contactor having an actuator and electrical terminals (46, 47) that are electrically isolated from each other when the contactor is open and electrically connected when the contactor is closed; a high temperature superconductor lead having a superconducting critical temperature (T C,HTS) of at least 25K; one or more electrical conductors (70, 71) electrically connecting a magnet-side electrical terminal of the contactor and a first end of the HTS lead, a second end of the HTS lead connected to or configured for connection to the superconducting magnet winding; and a first stage thermal station thermally connected with the first end of the HTS lead, the first stage thermal station having a first stage temperature (T 1) that is lower than the superconducting critical temperature (T C,HTS) of the HTS lead. a contactor having an actuator and electrical terminals (46, 47) that are electrically isolated from each other when the contactor is open and electrically connected when the contactor is closed; a high temperature superconductor lead having a superconducting critical temperature (T C,HTS) of at least 25K; one or more electrical conductors (70, 71) electrically connecting a magnet-side electrical terminal of the contactor and a first end of the HTS lead, a second end of the HTS lead connected to or configured for connection to the superconducting magnet winding; and a first stage thermal station thermally connected with the first end of the HTS lead, the first stage thermal station having a first stage temperature (T 1) that is lower than the superconducting critical temperature (T C,HTS) of the HTS lead.
A treatment process comprising: contacting a high suspended solids liquor comprising at least a waste stream and powdered activated carbon therein with one or more membranes of a membrane unit to generate a filtrate, wherein the membrane comprises a microfiltration membrane or an ultrafiltration membrane, wherein the high suspended solids liquor comprises a suspended solids concentration of at least 10 g/L, wherein the high suspended solids liquor further comprises an amount of biological material, wherein the biological material being any suitable population of bacterial micro-organisms effective to digest biodegradable, and wherein a weight ratio of the powdered activated carbon to the biological material is from 3:1 to 5:1.