mhurhangee/ep-ind-claims huggingface dataset:
Solar cell string for use in a photovoltaic module comprising (i) a string of at least two solar cells (2a, 2b, 2c) facing each other in opposite polarity, and shingled in string direction with or without partial overlap of solar cells (2a, 2b, 2c); (ii) at least one elongated electrically conducting interconnect (3a, 3b), optionally wire, ribbon or busbar, extending in string direction from one side of one solar cell to the opposite side of the next solar cell (2a, 2b, 2c) for mechanically and electrically connecting the positive and negative electrodes of the shingled solar cells (2a, 2b, 2c) in string direction on the alternating top and bottom sides of the solar cells; and (iii) at least two adhesives (4a, 4b), optionally thermoadhesive foils, covering the at least one elongated interconnect (3a, 3b) and at least part of the top or bottom side of each solar cell that comprises the elongated interconnect; with the proviso that (a) there is no horizontal gap between shingled solar cells, (b) the adhesives (4a, 4b) do not contact each other, do not extend beyond one solar cell, do not extend into the optional partial overlap of solar cells (2a, 2b, 2c), and at least partially cover and mechanically fixate the at least one interconnect (3a, 3b) to the solar cells (2a, 2b, 2c). (i) a string of at least two solar cells (2a, 2b, 2c) facing each other in opposite polarity, and shingled in string direction with or without partial overlap of solar cells (2a, 2b, 2c); (ii) at least one elongated electrically conducting interconnect (3a, 3b), optionally wire, ribbon or busbar, extending in string direction from one side of one solar cell to the opposite side of the next solar cell (2a, 2b, 2c) for mechanically and electrically connecting the positive and negative electrodes of the shingled solar cells (2a, 2b, 2c) in string direction on the alternating top and bottom sides of the solar cells; and (iii) at least two adhesives (4a, 4b), optionally thermoadhesive foils, covering the at least one elongated interconnect (3a, 3b) and at least part of the top or bottom side of each solar cell that comprises the elongated interconnect;
Method for communicating between at least one first system and at least one second system by way of a full-duplex synchronous serial link being able to simultaneously route between said systems (2,3) data comprising: at least one message (12; 43) from the first system to the second system, at least one message (16; 45) from the second system to the first system and a clock signal (13;44), a method in which: - the second system receives a message (12;43) and a clock signal (13;44) sent by the first system, delayed and substantially in phase, - the second system sends a message (16;45) to the first system, the method being characterized in that: - the clock signal (13;44) received by the second system is sent back (17;46) to the first system with said message (16; 45) sent by the second system, and - the first system receives the message (16;45) sent by the second system and the sent-back clock signal (17;46), delayed and substantially in phase. - the second system receives a message (12;43) and a clock signal (13;44) sent by the first system, delayed and substantially in phase, - the second system sends a message (16;45) to the first system, - the clock signal (13;44) received by the second system is sent back (17;46) to the first system with said message (16; 45) sent by the second system, and - the first system receives the message (16;45) sent by the second system and the sent-back clock signal (17;46), delayed and substantially in phase.
A waste-feeding apparatus, comprising: a vertical chute including upper and lower dampers (11, 12) separated from one another by a predetermined distance in an up-down direction, the upper and lower dampers (11, 12) having a sealing function that inhibits external air from entering a gasifier and configured to be alternately opened and closed; and a waste-conveying device configured to convey waste, which has been fed through the vertical chute, toward the gasifier, wherein the upper and lower dampers (11, 12) have damper bodies (11a, 12a), wherein each of the damper bodies (11a, 12a) has a damper substrate (11b, 12b), characterized in that each of said damper bodies (11a,12a) has a hard low-friction resin plate (11c, 12c) fixed to an upper surface of the damper substrate (11b, 12b) by mechanical fastening means, and wherein, when the upper or lower damper (11, 12) is closed, an upper surface of an outer edge portion of the hard low-friction resin plate (11c, 12c) contacts a sealing surface formed on an inner side of the vertical chute. a vertical chute including upper and lower dampers (11, 12) separated from one another by a predetermined distance in an up-down direction, the upper and lower dampers (11, 12) having a sealing function that inhibits external air from entering a gasifier and configured to be alternately opened and closed; and a waste-conveying device configured to convey waste, which has been fed through the vertical chute, toward the gasifier, wherein the upper and lower dampers (11, 12) have damper bodies (11a, 12a), wherein each of the damper bodies (11a, 12a) has a damper substrate (11b, 12b), characterized in that each of said damper bodies (11a,12a) has a hard low-friction resin plate (11c, 12c) fixed to an upper surface of the damper substrate (11b, 12b) by mechanical fastening means, and wherein, when the upper or lower damper (11, 12) is closed, an upper surface of an outer edge portion of the hard low-friction resin plate (11c, 12c) contacts a sealing surface formed on an inner side of the vertical chute.
Rolling mill comprising at least one first roll stand in the form of a roughing stand and a second roll stand in the form of a first roll stand consisting of a plurality of roll stands of a finishing rolling train; at least one longitudinal field inductor (100, 170), which is arranged between the first and second roll stands, for heating a metal strip moved through the inductor, wherein the longitudinal field inductor comprises an upper induction coil, which is arranged above the metal strip to be heated, and a lower induction coil, which is arranged below the metal strip to be heated and opposite the upper induction coil; and an energy supply device for supplying the upper and lower induction coils of the longitudinal field inductor (100, 170) with electrical energy so that they are operated by opposite-phase electric currents; characterised in that the longitudinal field inductor is constructed to be divided and laterally open; an upper longitudinal field inductor movement device is provided for moving the upper induction coil perpendicularly to the upper side of the metal strip and/or a lower longitudinal field inductor movement device is provided for moving the lower induction coil perpendicularly to the lower side of the metal strip; and the spacing (d) of the upper induction coil from the upper side of the metal strip and/or the spacing (d) of the lower induction coil from the lower side of the metal strip in a working position is d < 60 millimetres, preferably d < 20 millimetres.
A boron neutron capture therapy system comprising: a boron neutron capture therapy device; and an α-amino acid-like boron trifluoride compound having a structure shown as formula below: wherein, R represents hydrogen, methyl, isopropyl, 1-methylpropyl, 2-methylpropyl, hydroxymethyl, 1-hydroxyethyl, benzyl or hydroxybenzyl; M represents H or metal atom; the energy generated from the action of the neutron beam generated by the boron neutron capture therapy device on the α-amino acid-like boron trifluoride compound destroys tumor cell DNA. a boron neutron capture therapy device; and an α-amino acid-like boron trifluoride compound having a structure shown as formula below: wherein, R represents hydrogen, methyl, isopropyl, 1-methylpropyl, 2-methylpropyl, hydroxymethyl, 1-hydroxyethyl, benzyl or hydroxybenzyl; M represents H or metal atom; the energy generated from the action of the neutron beam generated by the boron neutron capture therapy device on the α-amino acid-like boron trifluoride compound destroys tumor cell DNA. wherein, R represents hydrogen, methyl, isopropyl, 1-methylpropyl, 2-methylpropyl, hydroxymethyl, 1-hydroxyethyl, benzyl or hydroxybenzyl; M represents H or metal atom; the energy generated from the action of the neutron beam generated by the boron neutron capture therapy device on the α-amino acid-like boron trifluoride compound destroys tumor cell DNA.
An assay apparatus comprising: a capillary tube; a sample reservoir; a sample cartridge in which the sample reservoir is formed and in which the capillary tube is mounted, whereby the capillary tube is in fluid communication with the reservoir; a holder configured to receive the sample cartridge; a magnet operatively associated with the holder such that a magnetic field intersects with a portion of the capillary tube defining a magnetic concentration region within the capillary tube; and a spectrometer operatively associated with the holder such that the focus of the spectrometer is within the magnetic concentration region. a capillary tube; a sample reservoir; a sample cartridge in which the sample reservoir is formed and in which the capillary tube is mounted, whereby the capillary tube is in fluid communication with the reservoir; a holder configured to receive the sample cartridge; a magnet operatively associated with the holder such that a magnetic field intersects with a portion of the capillary tube defining a magnetic concentration region within the capillary tube; and a spectrometer operatively associated with the holder such that the focus of the spectrometer is within the magnetic concentration region.
A device for measuring a biological sample, comprising: a main case; a display section and a sensor mount that are disposed away from each other on the outer surface of the main case; a control board that is connected to the display section and is provided inside the main case; a measurement board that is connected to the sensor mount and is provided inside the main case; a temperature sensor that is disposed on the measurement board; a measurement component that is provided on the measurement board and is connected to the temperature sensor by the measurement board; a partition wall that is provided between the display section and the sensor mount inside the main case; a control board housing chamber that is disposed on the display section side of the partition wall and houses the control board; a measurement board housing chamber that is disposed on the sensor mount side of the partition wall and encapsulates the measurement board and the temperature sensor; and wherein the control board is located exclusively within the control board housing chamber. the measurement board is located exclusively within the measurement board housing chamber, the inside of the two chambers is separated by the partition wall composed of two partition walls separated by a thermally insulating space in between, and the control board and the measurement board are connected to each other via a flexible cable. a main case; a display section and a sensor mount that are disposed away from each other on the outer surface of the main case; a control board that is connected to the display section and is provided inside the main case; a measurement board that is connected to the sensor mount and is provided inside the main case; a temperature sensor that is disposed on the measurement board; a measurement component that is provided on the measurement board and is connected to the temperature sensor by the measurement board; a partition wall that is provided between the display section and the sensor mount inside the main case; a control board housing chamber that is disposed on the display section side of the partition wall and houses the control board; a measurement board housing chamber that is disposed on the sensor mount side of the partition wall and encapsulates the measurement board and the temperature sensor; and wherein the control board is located exclusively within the control board housing chamber. the measurement board is located exclusively within the measurement board housing chamber, the inside of the two chambers is separated by the partition wall composed of two partition walls separated by a thermally insulating space in between, and the control board and the measurement board are connected to each other via a flexible cable.
A Cellular Internet of Things evolved Node B, CIoT eNB comprising baseband processing circuity including one or more processors to: process a Cellular Internet of Things Application Protocol, CIAP, setup request message received from a CIoT gateway, CIoT GW, the CIoT GW comprising a mobility management entity, MME, a serving gateway node, SGW, and a packet gateway node, PGW, wherein the CIAP setup request message is to configure a reduced signaling overhead between the CIoT eNB and the CIoT GW, or between the CIoT eNB and a CIoT user equipment, UE, or a combination thereof; generate a CIAP setup response message to be transmitted to the CIoT GW in response to the CIAP setup request message, wherein the CIAP setup request message and the CIAP response message are transmitted between the CIoT eNB and the CIoT GW, wherein the CIAP setup request message and the CIAP response message are transmitted via an S1 Lite interface between the CIoT eNB and the CIoT GW, wherein the S1 Lite interface comprises a control plane that includes user plane functions, and wherein when the CIAP setup response message does not include user equipment, UE, radio capability information for a UE, the one or more processors are further configured to: generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW. process a Cellular Internet of Things Application Protocol, CIAP, setup request message received from a CIoT gateway, CIoT GW, the CIoT GW comprising a mobility management entity, MME, a serving gateway node, SGW, and a packet gateway node, PGW, wherein the CIAP setup request message is to configure a reduced signaling overhead between the CIoT eNB and the CIoT GW, or between the CIoT eNB and a CIoT user equipment, UE, or a combination thereof; generate a CIAP setup response message to be transmitted to the CIoT GW in response to the CIAP setup request message, wherein the CIAP setup request message and the CIAP response message are transmitted between the CIoT eNB and the CIoT GW, wherein the CIAP setup request message and the CIAP response message are transmitted via an S1 Lite interface between the CIoT eNB and the CIoT GW, wherein the S1 Lite interface comprises a control plane that includes user plane functions, and wherein when the CIAP setup response message does not include user equipment, UE, radio capability information for a UE, the one or more processors are further configured to: generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW. generate a UE radio capability information request message to be transmitted to the UE; provide the UE Radio Capability to the CloT GW.
Exhaust gas heating unit for an exhaust system of an internal combustion engine, comprising: - a jacket heating conductor element with a jacket and with an electrical heating conductor which extends in the jacket and is surrounded by insulating material, - a heat transfer surface formation which is arranged on an outer side of the jacket and is in heat transfer contact with the same, characterized in that the heat transfer surface formation comprises at least one heat transfer element, which surrounds the jacket heating conductor element in a helical manner. - a jacket heating conductor element with a jacket and with an electrical heating conductor which extends in the jacket and is surrounded by insulating material, - a heat transfer surface formation which is arranged on an outer side of the jacket and is in heat transfer contact with the same, characterized in that the heat transfer surface formation comprises at least one heat transfer element, which surrounds the jacket heating conductor element in a helical manner.
An in vitro method for detecting a target DNA sequence in a sample comprising the following steps: a) submitting the sample DNA to a recombinase-polymerase isothermal nucleic acid amplification in the presence of a pair of primers capable of specifically amplifying the target DNA sequence wherein the first primer is labelled at the 5' end with a gold nanoparticle and the second primer is labelled at the 5' end with a first member of a binding pair that is bound to the second member of a binding pair conjugated to magnetic beads having a size lower than 2.8 μm before step a) takes place, and b) measuring the electrochemical signal produced by the gold nanoparticles forming part of the amplification products obtained in step a) using a screen-printed carbon electrode after capture of the amplification products on the electrode using said magnetic beads conjugated to a second member of a binding pair, wherein the detection of an electrochemical signal superior to the background signal indicates the presence of the target DNA sequence in the sample. a) submitting the sample DNA to a recombinase-polymerase isothermal nucleic acid amplification in the presence of a pair of primers capable of specifically amplifying the target DNA sequence wherein the first primer is labelled at the 5' end with a gold nanoparticle and the second primer is labelled at the 5' end with a first member of a binding pair that is bound to the second member of a binding pair conjugated to magnetic beads having a size lower than 2.8 μm before step a) takes place, and b) measuring the electrochemical signal produced by the gold nanoparticles forming part of the amplification products obtained in step a) using a screen-printed carbon electrode after capture of the amplification products on the electrode using said magnetic beads conjugated to a second member of a binding pair,
A method for producing a fluororubber composition, comprising the steps of mixing a fluororubber and a carbon black by means of an internal mixer until the maximum temperature reaches 80-220°C to obtain an intermediate composition; cooling the intermediate composition to a temperature of < 50°C; and mixing the cooled intermediate composition until the maximum temperature reaches 10°C to less than 80°C to obtain a fluororubber composition. mixing a fluororubber and a carbon black by means of an internal mixer until the maximum temperature reaches 80-220°C to obtain an intermediate composition; cooling the intermediate composition to a temperature of < 50°C; and mixing the cooled intermediate composition until the maximum temperature reaches 10°C to less than 80°C to obtain a fluororubber composition.
A method, performed by an encoder (100, 110), for adaptive loop filtering, the method comprising: determining filter parameters for a plurality of filters to be used in encoding a frame or slice; determining respective activity values for each of a plurality of blocks in the frame or slice, wherein each block comprises a plurality of pixels; determining respective quantization parameters for each of the plurality of blocks; weighting the activity value for each block by dividing the activity value by a factor A2 Δ QP∗B, wherein ΔQP comprises a difference between the quantization parameter of the respective block and the quantization parameter for the frame or slice, and wherein A and B are parameters; categorizing each block into one of a plurality of activity categories based on the respective weighted activity value; selecting, for each of the plurality of blocks, a filter from the plurality of determined filters based on the respective activity category; and applying the filter parameters for the respective selected filters to the plurality of blocks. determining filter parameters for a plurality of filters to be used in encoding a frame or slice; determining respective activity values for each of a plurality of blocks in the frame or slice, wherein each block comprises a plurality of pixels; determining respective quantization parameters for each of the plurality of blocks; weighting the activity value for each block by dividing the activity value by a factor A2 Δ QP∗B, wherein ΔQP comprises a difference between the quantization parameter of the respective block and the quantization parameter for the frame or slice, and wherein A and B are parameters; categorizing each block into one of a plurality of activity categories based on the respective weighted activity value; selecting, for each of the plurality of blocks, a filter from the plurality of determined filters based on the respective activity category; and applying the filter parameters for the respective selected filters to the plurality of blocks.
A system for attaching and recharging electric bicycles for hire, comprising a parking base or post with attachment means for other complementary attachment means established in the corresponding bicycle, with the possibility of releasing the latter by means of a user activating an identification, wherein the attachment means provided in the parking base or post includes a combination of magnetic attachment means and mechanical attachment means, the magnetic attachment means consisting of a permanent electromagnet, whereas the mechanical attachment means consist of a moving part, a pair of springs and a linear single-effect electromagnet, in combination with a ball bolt fastener, it having been provided that the means for recharging the battery of the bicycle consist of male contactors in the attachment provided to that end in the parking base or post and suitable for complementary female contactors established to that end in the attachment means arranged on the bicycle.