mhurhangee/ep-ind-claims huggingface dataset:
A method for performing an in situ proximity assay, comprising: (a) performing a proximity assay on one or more pairs of binding agent-oligonucleotide conjugates that are bound to the sample, in situ, to produce proximity assay reaction products; and (b) labeling the sites in the sample at which the proximity assay reaction products are produced, wherein the labeling comprises hybridizing an oligonucleotide to the proximity assay reaction products and does not involve primer extension; wherein the method further comprises treating the sample with one or more exonucleases between steps (a) and (b), thereby removing any nucleic acids that have free 3' and/or 5' ends. (a) performing a proximity assay on one or more pairs of binding agent-oligonucleotide conjugates that are bound to the sample, in situ, to produce proximity assay reaction products; and (b) labeling the sites in the sample at which the proximity assay reaction products are produced, wherein the labeling comprises hybridizing an oligonucleotide to the proximity assay reaction products and does not involve primer extension;
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising 65 wt% to 95 wt% of a polypropylene resin and 5 wt% to 35 wt% of a polyolefin copolymer resin; and 0.5 parts by weight to 10 parts by weight of zinc oxide, wherein the polyolefin copolymer resin comprises at least one of an ethylene-α-olefin copolymer resin, a propylene-α-olefin copolymer resin, an epoxy-modified polyolefin copolymer resin, and a maleic anhydride-modified polyolefin copolymer resin; and wherein the zinc oxide has an average particle diameter of 0.5 μm to 3 μm, a BET specific surface area of 1 m 2 /g to 10 m 2 /g, and a peak position degree (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å in X-ray diffraction analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree. 100 parts by weight of a base resin comprising 65 wt% to 95 wt% of a polypropylene resin and 5 wt% to 35 wt% of a polyolefin copolymer resin; and 0.5 parts by weight to 10 parts by weight of zinc oxide, wherein the polyolefin copolymer resin comprises at least one of an ethylene-α-olefin copolymer resin, a propylene-α-olefin copolymer resin, an epoxy-modified polyolefin copolymer resin, and a maleic anhydride-modified polyolefin copolymer resin; and wherein the zinc oxide has an average particle diameter of 0.5 μm to 3 μm, a BET specific surface area of 1 m 2 /g to 10 m 2 /g, and a peak position degree (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å in X-ray diffraction analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree.
A processor comprising: fetch circuitry to fetch a single instruction having fields to specify an opcode and locations of a M by N destination matrix having single-precision elements, a M by K first source matrix, and a K by N second source matrix, the first and second source matrices having elements comprising a pair of 16-bit floating-point values, the opcode to indicate execution circuitry is to, for each element (m, n) of the destination matrix, convert K pairs of elements from row m of the first source matrix and K pairs of elements from column n of the second source matrix to single-precision, generate even products of even elements from the first and second source matrices (tiles) and separately generate odd products of converted odd elements from the first and second source matrices (tiles), and then accumulate those products separately, one sum of the even products and one sum of the odd products, with previous contents of the element; decode circuitry to decode the fetched instruction; and the execution circuitry to respond to the decoded single instruction as per the opcode. fetch circuitry to fetch a single instruction having fields to specify an opcode and locations of a M by N destination matrix having single-precision elements, a M by K first source matrix, and a K by N second source matrix, the first and second source matrices having elements comprising a pair of 16-bit floating-point values, the opcode to indicate execution circuitry is to, for each element (m, n) of the destination matrix, convert K pairs of elements from row m of the first source matrix and K pairs of elements from column n of the second source matrix to single-precision, generate even products of even elements from the first and second source matrices (tiles) and separately generate odd products of converted odd elements from the first and second source matrices (tiles), and then accumulate those products separately, one sum of the even products and one sum of the odd products, with previous contents of the element; decode circuitry to decode the fetched instruction; and the execution circuitry to respond to the decoded single instruction as per the opcode.
A communication processing method for a Slave evolved NodeB SeNB, which constitutes a dual-connection radio communication network with a Master evolved NodeB MeNB, comprising: a first determination step of determining information about currently available service resources for distribution, in accordance with a resource condition; an admission control step of performing service admission processing on one or more first services in accordance with the information about the service resources; and a transmission step of transmitting service admission information indicating a service admission processing result to the MeNB, wherein the one or more first service is a service which is requested by the MeNB to be distributed to the SeNB, and the communication processing method further comprises a reception step of receiving from the MeNB a resource request message carrying service attribute information about the one or more first services, or the one or more first services are one or more services that have been currently distributed to the SeNB, and the communication processing method further comprises a second determination step of determining service attribute information about the one or more first services, characterised in that the service admission information comprises first information indicating the services in the one or more first services capable of being admitted by the SeNB and/or second information indicating services in the one or more first services incapable of being admitted by the SeNB in the case that the SeNB is capable of merely admitting parts of the one or more first services. a first determination step of determining information about currently available service resources for distribution, in accordance with a resource condition; an admission control step of performing service admission processing on one or more first services in accordance with the information about the service resources; and a transmission step of transmitting service admission information indicating a service admission processing result to the MeNB, wherein the one or more first service is a service which is requested by the MeNB to be distributed to the SeNB, and the communication processing method further comprises a reception step of receiving from the MeNB a resource request message carrying service attribute information about the one or more first services, or the one or more first services are one or more services that have been currently distributed to the SeNB, and the communication processing method further comprises a second determination step of determining service attribute information about the one or more first services, characterised in that the service admission information comprises first information indicating the services in the one or more first services capable of being admitted by the SeNB and/or second information indicating services in the one or more first services incapable of being admitted by the SeNB in the case that the SeNB is capable of merely admitting parts of the one or more first services.
Communication apparatus (2 1, 2 2, 2 3) for communication in a communication network, having an encryption device, wherein the encryption device encrypts outgoing messages at least in part by means of a key and an initialization vector (14 0), characterized in that the communication apparatus (2 1, 2 2, 2 3) has an initialization vector generator that generates at least one initialization vector (14 0) that has the following: a random section, a sender address of the communication apparatus and a packet and/or block number (113, 114).
An armored vehicle turret able to accommodate a crew including a shooter, comprising a fixed roof with an opening and a retractable protection system in the form of an armored cover or dome, able to be moved pivotably around a horizontal axis and/or in vertical translation, said turret being such that: - the retractable armored cover or dome can assume at least four positions, a first position in which the retractable system is retracted against the roof and provides closing of the opening, a second partial opening position in which the retractable system is partially deployed in upward vertical translation and makes it possible to protect a soldier in the observation position, a third partial opening position in which the retractable system is partially deployed in upward vertical translation, but more than in the second position, and makes it possible to protect a soldier in the sniper position, and a fourth complete opening position in which the retractable system is fully deployed by pivoting and/or upward vertical translation while exposing the opening in order to allow an evacuation of the crew; - the turret is provided with a mechanism ensuring, during use and depending on the needs, the movement of the retractable protection system between the aforementioned four positions and in the second position, the retractable dome exposes a lateral peripheral space closed off by protective plates with murder holes, allowing the soldier to assume an observation position of up to 360°. - the retractable armored cover or dome can assume at least four positions, a first position in which the retractable system is retracted against the roof and provides closing of the opening, a second partial opening position in which the retractable system is partially deployed in upward vertical translation and makes it possible to protect a soldier in the observation position, a third partial opening position in which the retractable system is partially deployed in upward vertical translation, but more than in the second position, and makes it possible to protect a soldier in the sniper position, and a fourth complete opening position in which the retractable system is fully deployed by pivoting and/or upward vertical translation while exposing the opening in order to allow an evacuation of the crew; - the turret is provided with a mechanism ensuring, during use and depending on the needs, the movement of the retractable protection system between the aforementioned four positions and in the second position, the retractable dome exposes a lateral peripheral space closed off by protective plates with murder holes, allowing the soldier to assume an observation position of up to 360°.
A method of making an ultra-conductive wire having enhanced conductivity, the method comprising: cold wire drawing a pre-wire product formed from an ultra-conductive metal to form a drawn wire, wherein the ultra-conductive metal is formed from a pure metal and a nano-carbon additive, wherein the pure metal is copper; and annealing the drawn wire to form an ultra-conductive wire; and wherein the ultra-conductive wire exhibits an International Annealed Copper Standard ("IACS") conductivity of 100% or greater, wherein the ultra-conductive wire comprises 0.0005%, by weight, to 0.1%. by weight, of the nano-carbon additive. cold wire drawing a pre-wire product formed from an ultra-conductive metal to form a drawn wire, wherein the ultra-conductive metal is formed from a pure metal and a nano-carbon additive, wherein the pure metal is copper; and annealing the drawn wire to form an ultra-conductive wire; and wherein the ultra-conductive wire exhibits an International Annealed Copper Standard ("IACS") conductivity of 100% or greater, wherein the ultra-conductive wire comprises 0.0005%, by weight, to 0.1%. by weight, of the nano-carbon additive.
A harness for pets, typically for dogs, comprising a first elongate and shaped front strap designed to be fitted on a chest area of a pet, a second elongate and shaped rear strap designed to be fitted on an abdominal area of the pet, and an element connecting said first and second straps, and designed to be fitted on a back of the pet, characterised in that each end of the front strap is connected to a corresponding end of the rear strap via a joint or pin (16, 17) that allowes these straps (11, 12) to move angularly with respect to each other, adapting anatomically to the body of the pet and thus forming a harness suitable for pets of different sizes, in that the connecting element is constituted by a connecting tape or cord provided with fastening means (20, 21, 22) that can be opened to allow the harness to be fitted on the body of the pet, and in that the straps (11, 12) are made from relatively rigid material and act in conjunction with each other exclusively at the joint or pin (16, 17) and there is no other central connecting element between them.
A transmission and reception controlling method, comprising: determining information associated with a channel status of a target terminal; determining a margin time for single-point transmission and reception in which a condition for single-point transmission and reception has to be continuously satisfied and a margin time for coordinated multi-point transmission and reception in which a condition for coordinated multi-point transmission and reception has to be continuously satisfied based on the information associated with a channel status of a target terminal; and selecting one of single-point transmission and reception and coordinated multi-point transmission and reception based on the margin time for single-point transmission and reception and margin time for the coordinated multi-point transmission and reception; wherein the margin time for single-point transmission and reception and the margin time for coordinated multi-point transmission and reception are determined based on the mobility of the target terminal.
A method of applying a metal comprising titanium to a substrate, the method comprising: nitriding the surface of metal powder particles comprising titanium by contacting the particles with a first gas comprising nitrogen in a fluidized bed reactor; and depositing the metal powder particles onto the substrate with cold spray deposition using a second gas. nitriding the surface of metal powder particles comprising titanium by contacting the particles with a first gas comprising nitrogen in a fluidized bed reactor; and depositing the metal powder particles onto the substrate with cold spray deposition using a second gas.
A cable management system, the cable management system comprising: a first cable support member having a plurality of finger members, each of the finger members having a first hinge pin member which includes a hinge pin bar and a first and a second hinge pin distal ends (184A, 184C) aligned along a first hinge pin member axis and the hinge pin distal ends (184A, 184C) are thicker, perpendicularly to the first hinge axis, than the hinge pin bar; a cover, the cover comprising: a cover body configured to at least partially enclose cables within the cable management system; and a plurality of hinge elements extending along a first side of the cover body and alternatingly radially spaced in opposing directions from a hinge axis to form a hinge channel, wherein each of the hinge elements include a set of recesses, each recess configured to receive a hinge pin member of the cable support member; wherein each of the plurality of hinge elements is configured to engage with the first cable support member, to support the cover for hinging movement relative to the first cable support member, when the first cable support member is disposed along the hinge axis; the first sets of first and second hinge pin distal ends (184A, 184C) being received within the sets of recesses, with the first hinge hinge pin member axis aligned with the hinge axis, to hingedly secure the cover to the first cable support member. a first cable support member having a plurality of finger members, each of the finger members having a first hinge pin member which includes a hinge pin bar and a first and a second hinge pin distal ends (184A, 184C) aligned along a first hinge pin member axis and the hinge pin distal ends (184A, 184C) are thicker, perpendicularly to the first hinge axis, than the hinge pin bar; a cover, the cover comprising: a cover body configured to at least partially enclose cables within the cable management system; and a plurality of hinge elements extending along a first side of the cover body and alternatingly radially spaced in opposing directions from a hinge axis to form a hinge channel, wherein each of the hinge elements include a set of recesses, each recess configured to receive a hinge pin member of the cable support member; a cover body configured to at least partially enclose cables within the cable management system; and a plurality of hinge elements extending along a first side of the cover body and alternatingly radially spaced in opposing directions from a hinge axis to form a hinge channel, wherein each of the hinge elements include a set of recesses, each recess configured to receive a hinge pin member of the cable support member; wherein each of the plurality of hinge elements is configured to engage with the first cable support member, to support the cover for hinging movement relative to the first cable support member, when the first cable support member is disposed along the hinge axis; the first sets of first and second hinge pin distal ends (184A, 184C) being received within the sets of recesses, with the first hinge hinge pin member axis aligned with the hinge axis, to hingedly secure the cover to the first cable support member.
A method for preparing ent-progesterone comprising the step of reacting a compound of the formula: with a ruthenium catalyst and an oxidizing agent to prepare ent-progesterone.
Filter element for an air filter device of a motor vehicle, comprising a frame which surrounds a filter material of the filter element at least in regions, the frame comprising a front wall which extends perpendicularly to an insertion direction and into which the filter element can be inserted into a receiving space of a housing of the air filter device, at least one fastening element being arranged on a front side of the front wall, to which fastening element a cover of the air filter device that is designed to close the receiving space can be fixed, and the at least one fastening element having at least one holding part (44, 46) which is spaced apart from the front side of the front wall and behind which corresponding holding parts of the cover can engage in order to close the receiving space by means of the cover, characterized in that the at least one fastening element has two holding parts (44, 46) which are designed as wings protruding from a shaft of the fastening element transversely to the insertion direction, the relevant holding part (44, 46) having a ramp-shaped form extending from a first end region to a second end region, facing the filter wall.
Harmonic drive having at least one internal gear with an internal toothing system, a flexible spur gear which is arranged within the internal gear and has an external toothing system, and a wave generator which is arranged within the spur gear for bending the spur gear in the radial direction, a torque-transmitting connection being produced between the internal gear and the spur gear on two opposite sites of the spur gear, the wave generator comprising a ring with an elliptical outer circumference and an elliptically deformed antifriction bearing which is attached on the outer circumference and has an outer ring, an inner ring and rolling bodies which are arranged between the outer ring and the inner ring, the wave generator comprising two rows of rolling bodies, characterized in that the rolling bodies overlap one another in the axial direction.
A method for distributed computing of a task on stored data, wherein the task is at least one of a mathematical function, a logic function, an identify function, a find function, a search engine function, language translation, text-to-voice conversion or voice-to-text conversion, the method comprising: identifying a set of distributed storage and task, DST, execution units of a superset of DST execution units, wherein the superset of DST execution units store a plurality of encoded data block groupings, wherein data is dispersed storage error encoded in accordance with dispersed storage error coding parameters to produce a plurality of encoded data blocks that is arranged into the plurality of encoded data block groupings, wherein the identifying comprises determining a recovery threshold of the data based on the dispersed storage error coding parameters and selecting a number of DST execution units of the superset of DST execution units based on the recovery threshold; partitioning the task into a set of partial tasks based on at least one of DST execution unit capability information and information regarding the set of DST execution units; and, outputting the set of partial tasks to the set of DST execution units for execution of the set of partial tasks on a set of the plurality of encoded data block groupings stored by the set of DST execution units, wherein the data is recoverable from the set of the plurality of encoded data block groupings and other encoded data block groupings of the plurality of encoded data block groupings are for error coding redundancy. identifying a set of distributed storage and task, DST, execution units of a superset of DST execution units, wherein the superset of DST execution units store a plurality of encoded data block groupings, wherein data is dispersed storage error encoded in accordance with dispersed storage error coding parameters to produce a plurality of encoded data blocks that is arranged into the plurality of encoded data block groupings, wherein the identifying comprises determining a recovery threshold of the data based on the dispersed storage error coding parameters and selecting a number of DST execution units of the superset of DST execution units based on the recovery threshold; partitioning the task into a set of partial tasks based on at least one of DST execution unit capability information and information regarding the set of DST execution units; and, outputting the set of partial tasks to the set of DST execution units for execution of the set of partial tasks on a set of the plurality of encoded data block groupings stored by the set of DST execution units, wherein the data is recoverable from the set of the plurality of encoded data block groupings and other encoded data block groupings of the plurality of encoded data block groupings are for error coding redundancy.