mhurhangee/ep-ind-claims huggingface dataset:
A data sending method, comprising: respectively receiving, by a forwarding device by using a first flexible Ethernet group, FlexE group, and in multiple timeslots comprised in a first timeslot set, multiple first encoded data blocks generated by a physical coding sublayer, PCS, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots in the first timeslot set; determining, by the forwarding device according to the multiple timeslots comprised in the first timeslot set and the first FlexE group, a second FlexE group and multiple timeslots comprised in a second timeslot set; and respectively sending, by the forwarding device, the multiple first encoded data blocks by using the second FlexE group and in the multiple timeslots comprised in the second timeslot set, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots comprised in the second timeslot set. respectively receiving, by a forwarding device by using a first flexible Ethernet group, FlexE group, and in multiple timeslots comprised in a first timeslot set, multiple first encoded data blocks generated by a physical coding sublayer, PCS, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots in the first timeslot set; determining, by the forwarding device according to the multiple timeslots comprised in the first timeslot set and the first FlexE group, a second FlexE group and multiple timeslots comprised in a second timeslot set; and respectively sending, by the forwarding device, the multiple first encoded data blocks by using the second FlexE group and in the multiple timeslots comprised in the second timeslot set, wherein the multiple first encoded data blocks are in a one-to-one correspondence with the multiple timeslots comprised in the second timeslot set.
A brachytherapy instrument wherein the brachytherapy instrument comprises a brachytherapy applicator provided with a hollow channel, said instrument further comprising a body, wherein the body is provided with at least one marker comprising a material suitable to be visualized using an ultrasonic and magnetic resonance imaging technique, wherein the marker consist of or includes at least one coating, characterised in that the marker is an MR visible marker provided at pre-determined reference points suitable for carrying out dose planning for the brachytherapy treatment wherein the marker indicates source dwell positions within the brachytherapy instrument, the MR visible marker being coated on the body structured for being received in the hollow channel of the brachytherapy applicator.
A method for sample preparation or analysis, comprising: (a) providing a plurality of microfluidic partitions, wherein a given partition of said plurality of partitions comprises a target and a first bead comprising one or more reagents for conducting one or more reactions on said target, wherein said first bead is disruptable; (b) disrupting said first bead to generate one or more precursors capable of forming a gel or polymer matrix; (c) using said one or more reagents to conduct said one or more reactions on said target, to yield one or more reaction products, wherein subsequent to conducting said one or more reactions, said given partition comprises said one or more precursors generated from said disruption of said first bead; and (d) gelling or polymerizing said one or more precursors to generate a second bead, which second bead comprises said one or more reaction products. (a) providing a plurality of microfluidic partitions, wherein a given partition of said plurality of partitions comprises a target and a first bead comprising one or more reagents for conducting one or more reactions on said target, wherein said first bead is disruptable; (b) disrupting said first bead to generate one or more precursors capable of forming a gel or polymer matrix; (c) using said one or more reagents to conduct said one or more reactions on said target, to yield one or more reaction products, wherein subsequent to conducting said one or more reactions, said given partition comprises said one or more precursors generated from said disruption of said first bead; and (d) gelling or polymerizing said one or more precursors to generate a second bead, which second bead comprises said one or more reaction products.
A method of obtaining a Radio Frequency, RF, performance metric estimate for a receiver (200; 300; 402; 530) used for at least one of a positioning measurement and a timing measurement, wherein the method is performed by a test equipment node as part of a testing procedure, the method comprising: Specifying a reference channel and generating and transmitting a reference radio signal to the receiver (200; 300; 402; 530) on said reference channel; calculating at least one of a detection probability and a false alarm rate for said reference radio signal usable for the measurement based on measurement reports received from the receiver; obtaining at least one RF performance metric estimate for the receiver based on at least one of the calculated detection probability and the calculated false alarm rate; and verifying the at least one RF performance metric estimate versus at least one pre-defined or configured RF performance metric value, wherein the at least one pre-defined or configured RF performance metric value shall be met for the reference channel. Specifying a reference channel and generating and transmitting a reference radio signal to the receiver (200; 300; 402; 530) on said reference channel; calculating at least one of a detection probability and a false alarm rate for said reference radio signal usable for the measurement based on measurement reports received from the receiver; obtaining at least one RF performance metric estimate for the receiver based on at least one of the calculated detection probability and the calculated false alarm rate; and verifying the at least one RF performance metric estimate versus at least one pre-defined or configured RF performance metric value, wherein the at least one pre-defined or configured RF performance metric value shall be met for the reference channel.
Propulsion assembly for an aircraft, said propulsion assembly having: - a pylon intended to be fastened below a wing of the aircraft, - a turbomachine comprising an engine and a fan that is enclosed by a fan casing and is disposed upstream of the engine, said turbomachine having a longitudinal direction X and a median plane XZ, - a nacelle surrounding the engine and the fan casing and having a load support disposed in the top part of the nacelle and lateral cowls mounted in a hinged manner on either side of the load support and mounted in a hinged manner on the load support, - a front engine attachment fastened between the pylon and a front part of the engine, - a rear engine attachment fastened between the pylon and a rear part of the engine, - a front fan attachment (214, 314, 614, 714, 914) fastened between the fan casing and the load support, and - a rear pylon attachment (216, 416, 516, 716) fastened between the pylon and the load support. - a pylon intended to be fastened below a wing of the aircraft, - a turbomachine comprising an engine and a fan that is enclosed by a fan casing and is disposed upstream of the engine, said turbomachine having a longitudinal direction X and a median plane XZ, - a nacelle surrounding the engine and the fan casing and having a load support disposed in the top part of the nacelle and lateral cowls mounted in a hinged manner on either side of the load support and mounted in a hinged manner on the load support, - a front engine attachment fastened between the pylon and a front part of the engine, - a rear engine attachment fastened between the pylon and a rear part of the engine, - a front fan attachment (214, 314, 614, 714, 914) fastened between the fan casing and the load support, and - a rear pylon attachment (216, 416, 516, 716) fastened between the pylon and the load support.
Load-lifting magnet for the force-fitted uptake of a magnetic load comprising: at least one stator having a first permanently magnetic element, at least one stator associated to the rotor having a second permanently magnetic element and at least one docking element for taking up the load, whereby the at least one rotor is rotatable by means of a rotary drive relative to the stator from an uptake position in which a magnetic force for the uptake of the load at the docking element is provided by the first and second permanently magnetic element into a release position, in which the magnetic force is load-releasingly reduced, characterized in that, the first permanently magnetic element of the stators connects to the second permanently magnetic element of the rotor in the main direction of the action of the magnetic force onto the load and lies between the second permanently magnetic element of the rotor and the docking element.
A compound of the formula: wherein R is -OH, -NHC(CH 2 OH) 3 or or a pharmaceutically acceptable salt thereof. R is -OH, -NHC(CH 2 OH) 3 or or a pharmaceutically acceptable salt thereof.
A hollow-core photonic bandgap fiber having a hollow core and a cladding which surrounds the core at a core boundary and comprises a lattice or network of struts (109, 109') and interstitial nodes (111, 111') which together define an array of cavities, wherein the ratio between the difference in the length of the longest and shortest pitch spacing of the nodes at the core boundary to the average pitch spacing at the core boundary is less than about 0.3, characterized in that the cladding has non-exact periodicity, with the average spacing of the cavities having a variance outside of the range of from 0.98 to 1.02.
An assembly comprising a rotating shaft (104, 114; 204, 214) supported with respect to a stationary housing (105, 115; 205, 215) by at least one active magnetic bearing presenting a mean radial air gap and at least one auxiliary bearing (118; 218) comprising first and second coaxially arranged annular surfaces (124, 123), one of said first and second coaxially arranged annular surfaces (124, 123) defining a clearance with one of said stationary housing (105, 115; 205, 215) and said rotating shaft (104, 114; 204, 214), said clearance being less than said mean radial air gap, and the other of said first and second coaxially arranged annular surfaces (124, 123) being integral with the other one of said stationary housing (105, 115; 205, 215) and said rotating shaft (104, 114; 204, 214), characterized in that the auxiliary bearing (118; 218) comprises a first ball bearing and a second ball bearing having a misalignment with respect to each other.
Wind turbine comprising: a main generator; a tower with a forward extending frame; a hub carrying one or more blades; and a plurality of power-producing windings mounted to the hub and a plurality of magnetic field components mounted to the frame, in such a way that said power-producing windings and said magnetic field components make up at least one auxiliary synchronous generator; characterized in that: the hub is rotatably mounted on the frame through a plurality of bearings in such a way that the frame is provided at least partially internally of the hub. a main generator; a tower with a forward extending frame; a hub carrying one or more blades; and a plurality of power-producing windings mounted to the hub and a plurality of magnetic field components mounted to the frame, in such a way that said power-producing windings and said magnetic field components make up at least one auxiliary synchronous generator; the hub is rotatably mounted on the frame through a plurality of bearings in such a way that the frame is provided at least partially internally of the hub.
A medical device for occluding a fistula, comprising: a generally conical plug configured to be placed within a fistula and to occlude the fistula; and a lumen extending throughout the length of the plug; wherein the lumen is configured to receive a wire guide characterised by a capping member integral with, attached to or otherwise associated with the plug and configured so as in use to prevent unintentional displacement of the plug. a generally conical plug configured to be placed within a fistula and to occlude the fistula; and a lumen extending throughout the length of the plug; wherein the lumen is configured to receive a wire guide characterised by a capping member integral with, attached to or otherwise associated with the plug and configured so as in use to prevent unintentional displacement of the plug.
A method for replicating anatomical features inside an eye which comprises the steps of: identifying a "z" axis for the eye; creating, using an imaging device, a first a cross sectional image of the eye, wherein the image includes the identified "z" axis; wherein imaging device is configured so that the creating of the first cross sectional image is performed using techniques selected from a group comprising Optical Coherence Tomography, Scheimpflug, two-photon imaging and range finding; establishing, using a computer, a proper orientation of the "z" axis in relation to the first cross-sectional image; establishing, using the computer, a plurality of reference points (22, 26, 32, 36) along the "z" axis in the first cross sectional image, wherein each reference point (22, 26, 32, 36) is respectively located where a surface (24, 28, 34, 38) shown in the image intersects the "z" axis; relating each reference point (22, 26, 32, 36) to a particularly identified anatomical surface in the image; and measuring, using the computer, a plurality of contiguous lengths (Δ"z" n) along the "z" axis, wherein each length is individually measured between adjacent reference points (22, 26, 32, 36) for use in replicating an anatomical feature; wherein the orientation of the "z" axis together with the placement of the reference points (22, 26, 32, 36) and the contiguous lengths (Δ"z" n) create a template; characterized in that the method further comprises superposing, using the computer, the template onto a second image of the eye. identifying a "z" axis for the eye; creating, using an imaging device, a first a cross sectional image of the eye, wherein the image includes the identified "z" axis; wherein imaging device is configured so that the creating of the first cross sectional image is performed using techniques selected from a group comprising Optical Coherence Tomography, Scheimpflug, two-photon imaging and range finding; establishing, using a computer, a proper orientation of the "z" axis in relation to the first cross-sectional image; establishing, using the computer, a plurality of reference points (22, 26, 32, 36) along the "z" axis in the first cross sectional image, wherein each reference point (22, 26, 32, 36) is respectively located where a surface (24, 28, 34, 38) shown in the image intersects the "z" axis; relating each reference point (22, 26, 32, 36) to a particularly identified anatomical surface in the image; and measuring, using the computer, a plurality of contiguous lengths (Δ"z" n) along the "z" axis, wherein each length is individually measured between adjacent reference points (22, 26, 32, 36) for use in replicating an anatomical feature; wherein the orientation of the "z" axis together with the placement of the reference points (22, 26, 32, 36) and the contiguous lengths (Δ"z" n) create a template; characterized in that the method further comprises superposing, using the computer, the template onto a second image of the eye.
A method of monitoring media presented via a mobile communication device, where the media presented is detected using a microphone of the mobile communication device and comprising: determining a mode of operation of media presentation software of the mobile communication device; and configuring a media presentation monitor associated with the mobile communication device to collect metering information corresponding to the audio signals detected by the microphone based on the determined mode of operation of the media presentation software. determining a mode of operation of media presentation software of the mobile communication device; and configuring a media presentation monitor associated with the mobile communication device to collect metering information corresponding to the audio signals detected by the microphone based on the determined mode of operation of the media presentation software.
Method for igniting fuel in an internal combustion engine with compression-induced auto-ignition, which is designed as a reciprocating piston engine and comprises at least one cylinder, in which a piston connected to a crankshaft via a connecting rod is translationally movable, wherein a cylinder head forms the upper boundary of a cylinder chamber in the cylinder, and the cylinder head comprises a compression tube open to the cylinder chamber, equipped with at least one injection nozzle, wherein through a movement of the piston in the direction of an upper dead centre position a fuel-air mixture is transported into and compressed in the compression tube, so that with rising temperature of the fuel-air mixture during this compression stroke a compression-induced auto-ignition is induced within the compression tube shortly before, at, or shortly after the upper dead centre position, characterised in that a fuel jet is injected through the injection nozzle while avoiding wetting the inner wall of the compression tube, so that during the compression stroke the fuel is injected through the compression tube partly into the cylinder chamber, and that the piston generates a closing effect of the compression tube in the region of the upper dead centre position, so that a thereby delayed pressure increase is produced in the cylinder chamber.
A sphygmomanometer cuff for a wearable sphygmomanometer comprising a cuff body for wrapping around a predetermined portion of a body, the cuff body comprising an air bag, a retaining plate and an air tube; the air bag comprising a top layer and a bottom layer, a sealed cavity being defined between the top layer and the bottom layer; the retaining plate attached to an outer surface of the top layer of the air bag; the air tube extending through the retaining plate and connecting with the sealed cavity of the air bag, wherein an intermediate layer is disposed between the top layer and the bottom layer and separates the top layer and the bottom layer, and the intermediate layer has a rough surface; characterized in that the retaining plate is suitable for securing a sphygmomanometer to the cuff body; and a bottom surface of the retaining plate is arcuate, the bottom surface recesses toward a top surface of the retaining plate, a plurality of securing feet are formed intermittently on a bottom of the retaining plate and intermittently contact the outer surface of the top layer of the air bag, and a plurality of interspaces are formed between any two of the securing feet at the bottom of the retaining plate and the outer surface of the top layer.
A precursor solution of a semiconductor electrothermal film, wherein it comprises: component A, wherein the component A comprises the following components in parts by weight: 2-10 parts of tin tetrachloride pentahydrate, 3-6 parts of stannous chloride and 0.3-1 parts of glycerol, and also comprises a pH regulator, a pH of the component A is 4.7-6.2; component B, wherein the component B comprises the following components by weight: 5-10 parts of a conductivity regulator, the conductivity regulator is selected from a group consisting of antimony trichloride dihydrate, bismuth trioxide, aluminum oxide, thallium dioxide and a mixture thereof, 0.6-1 part of aluminum chloride, also comprising a pH regulator, a pH of the component B is 4.7-5.0; component C, wherein the component C comprises the following components in parts by weight: 0.5-0.7 parts of tin oxide, 0.8-1.5 parts of bismuth oxide, and 15-25 parts of ethanol; and 15-30 parts of distilled water. component A, wherein the component A comprises the following components in parts by weight: 2-10 parts of tin tetrachloride pentahydrate, 3-6 parts of stannous chloride and 0.3-1 parts of glycerol, and also comprises a pH regulator, a pH of the component A is 4.7-6.2; component B, wherein the component B comprises the following components by weight: 5-10 parts of a conductivity regulator, the conductivity regulator is selected from a group consisting of antimony trichloride dihydrate, bismuth trioxide, aluminum oxide, thallium dioxide and a mixture thereof, 0.6-1 part of aluminum chloride, also comprising a pH regulator, a pH of the component B is 4.7-5.0; component C, wherein the component C comprises the following components in parts by weight: 0.5-0.7 parts of tin oxide, 0.8-1.5 parts of bismuth oxide, and 15-25 parts of ethanol; and 15-30 parts of distilled water.
Method for capturing at least one characteristic variable of at least one tool, in particular of a hand-held power tool, which is connected to at least one additional module, in particular in a detachable manner, wherein the additional module identifies at least one characteristic variable of the tool in one method step (102, 202), wherein, in the one method step (102, 202), at least one training operation is executed, in which at least one reference value for the at least one characteristic variable is derived by means of the at least one additional module and is stored, wherein, in one method step (110, 210), at least one calibration process is executed, wherein at least one operating value for the characteristic variable is derived by means of the at least one additional module and is stored, and wherein, in one method step, an interference characteristic variable of the at least one tool is established from a comparison of the at least one operating value with the at least one reference value.
A compound of formula wherein, R is selected from hydrogen, alkyl, nitro, halogens such as chlorine, bromine, fluorine and iodine; R 1 = hydrogen, alkyl, alkoxy, aryl, nitro, halogens such as chlorine, bromine, fluorine and iodine, trifluoromethyl, thioalkyl, trifluromethoxy, trialkylsilyl. wherein, R is selected from hydrogen, alkyl, nitro, halogens such as chlorine, bromine, fluorine and iodine; R 1 = hydrogen, alkyl, alkoxy, aryl, nitro, halogens such as chlorine, bromine, fluorine and iodine, trifluoromethyl, thioalkyl, trifluromethoxy, trialkylsilyl.