mhurhangee/ep-ind-claims huggingface dataset:
A method for measuring concentration of receptor-ligand binding complex in a test sample, the method comprising: providing a metallic surface having positioned thereon a receptor molecule having affinity for a ligand of interest, wherein the metallic surface comprises metallic islands, metallic nanostructures or metallic colloids; contacting the receptor molecule with the test sample suspected of comprising the ligand of interest, wherein the ligand of interest will bind to the receptor molecule to form a receptor-ligand complex; contacting the receptor-ligand complex with a detector molecule having affinity for the ligand to form a receptor-ligand-detector complex, wherein the detector molecule comprises a chemiluminescent label, wherein the chemiluminescent label is positioned about 5 nm to about 200 nm from the metallic surfaces; triggering the chemiluminescent label to induce a chemically electronically excited state to produce chemiluminescence that couples with metallic surface plasmons for excitement thereof; irradiating at least the test sample with microwave energy, wherein the microwave energy has a power input of from about 100 to 150 watts; and measuring the intensity of radiation emitted from at least the excited metallic surface plasmons. providing a metallic surface having positioned thereon a receptor molecule having affinity for a ligand of interest, wherein the metallic surface comprises metallic islands, metallic nanostructures or metallic colloids; contacting the receptor molecule with the test sample suspected of comprising the ligand of interest, wherein the ligand of interest will bind to the receptor molecule to form a receptor-ligand complex; contacting the receptor-ligand complex with a detector molecule having affinity for the ligand to form a receptor-ligand-detector complex, wherein the detector molecule comprises a chemiluminescent label, wherein the chemiluminescent label is positioned about 5 nm to about 200 nm from the metallic surfaces; triggering the chemiluminescent label to induce a chemically electronically excited state to produce chemiluminescence that couples with metallic surface plasmons for excitement thereof; irradiating at least the test sample with microwave energy, wherein the microwave energy has a power input of from about 100 to 150 watts; and measuring the intensity of radiation emitted from at least the excited metallic surface plasmons.
A circuit comprising: a channelizer channelizing at separate outputs a received incoming radio frequency signal and a transmitted outgoing radio frequency signal; and a cancellation filter for each active channel of the incoming radio frequency signal, each cancellation filter coupled to an output of the channelizer for the respective active channel, each cancellation filter configured to estimate and cancel transmission noise from the outgoing signal in only each respective identified active incoming channel. a channelizer channelizing at separate outputs a received incoming radio frequency signal and a transmitted outgoing radio frequency signal; and a cancellation filter for each active channel of the incoming radio frequency signal, each cancellation filter coupled to an output of the channelizer for the respective active channel, each cancellation filter configured to estimate and cancel transmission noise from the outgoing signal in only each respective identified active incoming channel.
A stored image reclassification system used for a system configured to image a component by a camera, the component being picked up by a suction nozzle of a component mounting machine, recognize the component by processing the captured image using an image recognition system, determine the image to be normal or abnormal based on the recognition result; classify the image as a normal image or an abnormal image and store the image in a storage device, and inspect a component mounting board unloaded from the component mounting machine with an inspection device, the stored image reclassification system comprising: a reclassification section configured to reclassify the normal image, based on the inspection result of the inspection device, as an image whose determination as a normal image is suspect or as an image whose determination as a normal image is not suspect, and store the normal image in the storage device. image a component by a camera, the component being picked up by a suction nozzle of a component mounting machine, recognize the component by processing the captured image using an image recognition system, determine the image to be normal or abnormal based on the recognition result; classify the image as a normal image or an abnormal image and store the image in a storage device, and inspect a component mounting board unloaded from the component mounting machine with an inspection device, the stored image reclassification system comprising: a reclassification section configured to reclassify the normal image, based on the inspection result of the inspection device, as an image whose determination as a normal image is suspect or as an image whose determination as a normal image is not suspect, and store the normal image in the storage device.
An inflatable pool comprising: a top wall; a bottom wall; an inner side wall and an outer side wall, wherein the outer side wall surrounds the inner side wall; and wherein the top wall is connected to the top of the inner side wall and the top of the outer side wall, the bottom wall is connected to the bottom of the inner side wall and the bottom of the outer side wall, and an inflatable air chamber is defined by the top wall, the bottom wall, the inner side wall and the outer side wall; and wherein, the pool also comprises a plurality of laminated elements arranged in the air chamber in an array manner and connected to the inner side wall and the outer side wall, and wherein the laminated elements each comprise a first layer of a pattern of crossed fibers and an attaching layer to which the first layer is attached. a top wall; a bottom wall; an inner side wall and an outer side wall, wherein the outer side wall surrounds the inner side wall; and wherein the top wall is connected to the top of the inner side wall and the top of the outer side wall, the bottom wall is connected to the bottom of the inner side wall and the bottom of the outer side wall, and an inflatable air chamber is defined by the top wall, the bottom wall, the inner side wall and the outer side wall; and wherein, the pool also comprises a plurality of laminated elements arranged in the air chamber in an array manner and connected to the inner side wall and the outer side wall, and wherein the laminated elements each comprise a first layer of a pattern of crossed fibers and an attaching layer to which the first layer is attached.
An agglomerate abrasive grain made up of a plurality of individual abrasive grains which are bonded into an inorganic or organic binder matrix, wherein based on the total weight of the agglomerate abrasive grain, at least 8% by weight of the abrasive grains which are bonded into the binder matrix are fused alumina-based polycrystalline alumina abrasive grains with a percentage of more than 97% by weight of alpha-alumina, wherein the polycrystalline alumina abrasive grains are made up of a plurality of Al 2 O 3 primary crystals with a crystal size of between 20 μm and 100 μm, wherein the agglomerate abrasive grain has a closed macroporosity with a pore volume of between 5% by volume and 30% by volume, and wherein the average pore diameter of the closed macropores is between 10 μm and 100 μm.
A manufacturing apparatus of a SiC single crystal, comprising: a crucible including a tubular side wall and a bottom wall disposed at a lower end of the side wall, the crucible being able to house a SiC solution; a chamber housing the crucible; a vertical seed shaft having a lower end surface to which a SiC seed crystal is to be attached, the seed shaft being able to bring the SiC seed crystal attached to the lower end surface into contact with the SiC solution; an induction heating unit disposed around the side wall of the crucible in the chamber; and a control unit adapted to control the induction heating unit, characterized in that the control unit is adapted to control the induction heating unit such that a frequency f (Hz) of alternating current to be passed to the induction heating unit is not less than 1 kHz and satisfies Formula, where D1 (mm) indicates a permeation depth of electromagnetic waves into the side wall by the induction heating unit, D2 (mm) indicates a permeation depth of electromagnetic waves into the SiC solution by the induction heating unit, T (mm) indicates a thickness of the side wall, and R (mm) indicates an inner radius of the crucible: D 1 − T × D 2 / R > 1 where, D1 is defined by Formula, and D2 is defined by Formula: D 1 = 503292 × 1 / f × σc × μc 1 / 2 D 2 = 503292 × 1 / f × σs × μs 1 / 2 where, σc is an electric conductivity (S/m) of the side wall, σs is an electric conductivity (S/m) of the SiC solution, μc is a relative permeability (dimensionless quantity) of the side wall, and μs is a relative permeability (dimensionless quantity) of the SiC solution. a crucible including a tubular side wall and a bottom wall disposed at a lower end of the side wall, the crucible being able to house a SiC solution; a chamber housing the crucible; a vertical seed shaft having a lower end surface to which a SiC seed crystal is to be attached, the seed shaft being able to bring the SiC seed crystal attached to the lower end surface into contact with the SiC solution; an induction heating unit disposed around the side wall of the crucible in the chamber; and a control unit adapted to control the induction heating unit, characterized in that the control unit is adapted to control the induction heating unit such that a frequency f (Hz) of alternating current to be passed to the induction heating unit is not less than 1 kHz and satisfies Formula, where D1 (mm) indicates a permeation depth of electromagnetic waves into the side wall by the induction heating unit, D2 (mm) indicates a permeation depth of electromagnetic waves into the SiC solution by the induction heating unit, T (mm) indicates a thickness of the side wall, and R (mm) indicates an inner radius of the crucible: D 1 − T × D 2 / R > 1 where, D1 is defined by Formula, and D2 is defined by Formula: D 1 = 503292 × 1 / f × σc × μc 1 / 2 D 2 = 503292 × 1 / f × σs × μs 1 / 2 where, σc is an electric conductivity (S/m) of the side wall, σs is an electric conductivity (S/m) of the SiC solution, μc is a relative permeability (dimensionless quantity) of the side wall, and μs is a relative permeability (dimensionless quantity) of the SiC solution.
A method for receiving timing information over a peer-to-peer network, comprising: receiving first synchronization information comprising first timing information for synchronizing network communications on a first communication channel of said peer-to-peer network; and receiving second synchronization information comprising second timing information for synchronizing communications on a second communication channel, the second synchronization information indicating a paging window interval (441, 443, 445, 447) communicated on the second communication channel, the paging window interval comprising a period during which at least one of beacons and data structures is communicated, the paging window interval (441, 443, 445, 447) is based on the first synchronization information, wherein receiving the paging window interval is non-concurrent and synchronized with the receiving of the first synchronization information. receiving first synchronization information comprising first timing information for synchronizing network communications on a first communication channel of said peer-to-peer network; and receiving second synchronization information comprising second timing information for synchronizing communications on a second communication channel, the second synchronization information indicating a paging window interval (441, 443, 445, 447) communicated on the second communication channel, the paging window interval comprising a period during which at least one of beacons and data structures is communicated, the paging window interval (441, 443, 445, 447) is based on the first synchronization information, wherein receiving the paging window interval is non-concurrent and synchronized with the receiving of the first synchronization information.
An apparatus comprising: a baffle plate configured to be disposed in a pressurized water reactor with a second side of the baffle plate facing an internal pressurizer volume and an opposite first side of the baffle plate facing an operational PWR volume; and a vent pipe passing through the baffle plate and having first end in fluid communication with the first side of the baffle plate and an opposite second end in fluid communication with the second side of the baffle plate; wherein the first end of the vent pipe is relatively closer to the baffle plate and the second end of the vent pipe is relatively further away from the baffle plate; wherein the baffle plate includes a pressure transfer passage different from the vent pipe, the pressure transfer passage passing through the baffle plate and having first end in fluid communication with the first side of the baffle plate and an opposite second end in fluid communication with the second side of the baffle plate; wherein the second end of the pressure transfer passage is relatively closer to the baffle plate than the second end of the vent pipe; and wherein the baffle plate is designed to be thermally insulating between the internal pressurizer volume disposed above the baffle plate and the operational PWR volume disposed below the baffle plate, characterized in that the baffle plate comprises first and second spaced apart plates (60, 62) defining a sealed volume optionally in which a gas is disposed. a baffle plate configured to be disposed in a pressurized water reactor with a second side of the baffle plate facing an internal pressurizer volume and an opposite first side of the baffle plate facing an operational PWR volume; and a vent pipe passing through the baffle plate and having first end in fluid communication with the first side of the baffle plate and an opposite second end in fluid communication with the second side of the baffle plate; wherein the first end of the vent pipe is relatively closer to the baffle plate and the second end of the vent pipe is relatively further away from the baffle plate; wherein the baffle plate includes a pressure transfer passage different from the vent pipe, the pressure transfer passage passing through the baffle plate and having first end in fluid communication with the first side of the baffle plate and an opposite second end in fluid communication with the second side of the baffle plate; wherein the second end of the pressure transfer passage is relatively closer to the baffle plate than the second end of the vent pipe; and wherein the baffle plate is designed to be thermally insulating between the internal pressurizer volume disposed above the baffle plate and the operational PWR volume disposed below the baffle plate,
Hybrid transmission for a motor vehicle equipped with a combustion engine and with an electric machine for drive, comprising two concentric primary shafts (1, 6) each bearing at least one gear (4, 8, 9) for transmitting to a secondary shaft connected to the wheels of the vehicle, namely a hollow primary shaft connected to the electric machine and a solid primary shaft connected to the combustion engine, characterized in that the solid primary shaft is connected directly via a filtering system to the flywheel of the combustion engine and bears an idler gear which can be connected directly thereto by a first means of coupling between the two primary shafts (1, 6) which is able to occupy at least three positions in which: - the combustion engine is uncoupled from the drivetrain that connects the electric machine to the wheels (position 1), - the idler gear is connected to the solid shaft and the combustion engine drives the wheels with or without top-up from the electric machine (position 2), and - the combustion engine and the electric machine are coupled in such a way that their respective torques bound for the wheels are combined (position 3). - the combustion engine is uncoupled from the drivetrain that connects the electric machine to the wheels (position 1), - the idler gear is connected to the solid shaft and the combustion engine drives the wheels with or without top-up from the electric machine (position 2), and - the combustion engine and the electric machine are coupled in such a way that their respective torques bound for the wheels are combined (position 3).
A method for transmitting broadcast signals, the method including: Low Density Parity Check, LDPC, encoding Data Pipe, DP, data according to a code rate; bit interleaving the LDPC encoded DP data; mapping the bit interleaved DP data onto constellations; time interleaving the mapped DP data; building at least one signal frame by arranging the time interleaved DP data; inserting Continual Pilots, CPs, in the built signal frame; modulating data in the built signal frame by Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the broadcast signals having the modulated data, characterized in that the inserted CPs include a first subset and a second subset for a 32K Fast Fourier Transform, FFT, size, and a location of a CP in the second subset is obtained by applying reversing and shifting operation to the location of a respective CP in the first subset. Low Density Parity Check, LDPC, encoding Data Pipe, DP, data according to a code rate; bit interleaving the LDPC encoded DP data; mapping the bit interleaved DP data onto constellations; time interleaving the mapped DP data; building at least one signal frame by arranging the time interleaved DP data; inserting Continual Pilots, CPs, in the built signal frame; modulating data in the built signal frame by Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the broadcast signals having the modulated data, characterized in that the inserted CPs include a first subset and a second subset for a 32K Fast Fourier Transform, FFT, size, and a location of a CP in the second subset is obtained by applying reversing and shifting operation to the location of a respective CP in the first subset.
A power sourcing equipment, PSE, for determining a resistance of a powered cable, said PSE comprising: a first supply voltage to cause a first current to flow through a first output terminal (218a, 218b) of said PSE; a second supply voltage to cause a second current to flow through a second output terminal (218c, 218d) of said PSE; a current modulation circuit offsetting said second current from said first current to create an offset voltage between said second and said first supply voltages to determine said resistance of said powered cable. a first supply voltage to cause a first current to flow through a first output terminal (218a, 218b) of said PSE; a second supply voltage to cause a second current to flow through a second output terminal (218c, 218d) of said PSE; a current modulation circuit offsetting said second current from said first current to create an offset voltage between said second and said first supply voltages to determine said resistance of said powered cable.
A method of depositing a donor material onto a target surface comprising the steps of: - covering a first main side of a substrate with a stretchable layer, attaching the stretchable layer thereto with a sealing around an enclosed area at the first main side, therewith defining an enclosure, the stretchable layer having an outer surface facing away from the substrate, the outer surface being patterned with one or more recessed areas (42a,...,42e); - filling the one or more recessed areas (42a,...,42e) with the donor material to be deposited; - providing for a relatively high pressure in an interior of the enclosure as compared to a pressure in an exterior of the enclosure by supplying a gas to the interior through an opening in the substrate, therewith increasing a volume (V 61) of the interior to press the patterned surface of the stretchable layer against the target surface; - irradiating the substrate at a second main side opposite its first main side with photon radiation having an intensity and a duration that causes a transfer of donor material from the one or more recessed areas (42a,...,42e) to the target surface. - covering a first main side of a substrate with a stretchable layer, attaching the stretchable layer thereto with a sealing around an enclosed area at the first main side, therewith defining an enclosure, the stretchable layer having an outer surface facing away from the substrate, the outer surface being patterned with one or more recessed areas (42a,...,42e); - filling the one or more recessed areas (42a,...,42e) with the donor material to be deposited; - providing for a relatively high pressure in an interior of the enclosure as compared to a pressure in an exterior of the enclosure by supplying a gas to the interior through an opening in the substrate, therewith increasing a volume (V 61) of the interior to press the patterned surface of the stretchable layer against the target surface; - irradiating the substrate at a second main side opposite its first main side with photon radiation having an intensity and a duration that causes a transfer of donor material from the one or more recessed areas (42a,...,42e) to the target surface.
Method for operating at least two lifting gears in a group operation, wherein each lifting gear has a hoist, via which a respective load picking-up means can be raised by a lifting procedure or can be lowered by a lowering procedure, in which group operation, in a synchronous operating mode, firstly a common lifting procedure is carried out by means of the at least two hoists in order to move a load fastened to the load picking-up means, after the common lifting procedure, for changing from the synchronous operation to an individual operation or a multi-operation, at least one of the hoists involved in the common lifting procedure is deactivated, and at least one of the involved hoists remains activated such that only each activated hoist can carry out a lifting procedure or lowering procedure relative to each deactivated hoist, characterised in that even after changing from the synchronous operation to the individual operation or the multi-operation for each hoist previously involved in the common lifting procedure of the synchronous operation, in particular each deactivated hoist, a load value corresponding to a partial load acting upon the hoist is determined and compared to a respectively permissible threshold value.