mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for configuring a neuromorphic system comprising a plurality of physical cores wherein the method comprises: reading a neural network description describing a plurality of logical cores, each logical core being executable by a physical core; determining a plurality of precedence relationships among the plurality of logical cores; determining a plurality of identity relationships among the plurality of logical cores, each identity relationship determining at least two identical logic cores, wherein two logical cores are identical when each parameter of a plurality of parameters of the one of two logical cores is identical to a corresponding parameter of a plurality of parameters of the other of the two logical cores and neither of the two logical cores is a precedent to the other; based on the plurality of precedence relationships, generating a schedule assigning the plurality of logical cores to the plurality of physical cores at a plurality of time slices, wherein generating the schedule comprises assigning identical logical cores to the same physical core in consecutive time slices; configuring the plurality of physical cores according to the assigned logical cores within each time slice of the plurality of time slices, comprising receiving parameters for a logical core that is not determined as identical and reusing rather than re-receiving parameters that are already loaded at a physical core for a logical core that is determined as identical, at each time slice, in order to, based on the schedule, execute the plurality of logical cores on the physical cores. reading a neural network description describing a plurality of logical cores, each logical core being executable by a physical core; determining a plurality of precedence relationships among the plurality of logical cores; determining a plurality of identity relationships among the plurality of logical cores, each identity relationship determining at least two identical logic cores, wherein two logical cores are identical when each parameter of a plurality of parameters of the one of two logical cores is identical to a corresponding parameter of a plurality of parameters of the other of the two logical cores and neither of the two logical cores is a precedent to the other; based on the plurality of precedence relationships, generating a schedule assigning the plurality of logical cores to the plurality of physical cores at a plurality of time slices, wherein generating the schedule comprises assigning identical logical cores to the same physical core in consecutive time slices; configuring the plurality of physical cores according to the assigned logical cores within each time slice of the plurality of time slices, comprising receiving parameters for a logical core that is not determined as identical and reusing rather than re-receiving parameters that are already loaded at a physical core for a logical core that is determined as identical, at each time slice, in order to, based on the schedule, execute the plurality of logical cores on the physical cores.
A population of allogeneic T cells comprising EBV-specific T cells for use in a method of treating an Epstein-Barr Virus-associated lymphoproliferative disorder (EBV-LPD) in a human patient, wherein the EBV-LPD is a disorder of cells of B cell lineage, wherein the method comprises administering to the human patient the population of allogeneic T cells, wherein the human patient has failed (a) a combination chemotherapy to treat the EBV-LPD, (b) a therapy with an anti-CD20 monoclonal antibody to treat the EBV-LPD, and (c) a radiation therapy to treat the EBV-LPD, and wherein the population of allogeneic T cells is restricted by a human leukocyte antigen (HLA) allele shared with cells of the EBV-LPD.
A method for real time video stabilization, the method comprising the steps of: monitoring a region to be monitored with respect to a device under test with the aid of a video camera of a measurement system, wherein the device under test comprises the region to be monitored and is subject to vibrations, defining at least one reference region in the region to be monitored , marking the at least one reference region with a sticker, and using the at least one reference region for compensation of the vibrations of the device under test to stabilize an image of the video camera of the region to be monitored, wherein the method further comprises the step of warning a user if the at least one reference region is too small for a respective amplitude of the vibrations. monitoring a region to be monitored with respect to a device under test with the aid of a video camera of a measurement system, wherein the device under test comprises the region to be monitored and is subject to vibrations, defining at least one reference region in the region to be monitored , marking the at least one reference region with a sticker, and using the at least one reference region for compensation of the vibrations of the device under test to stabilize an image of the video camera of the region to be monitored,
A process to form an ethylene-based polymer, said process comprising polymerizing a mixture comprising ethylene, in the presence of at least one free-radical initiator, and in a tubular reactor system comprising at least two ethylene-based feed streams, and a reactor configuration that comprises at least three reaction zones; and wherein the inlet pressure of the first reaction zone is less than, or equal to, 320000 kPa (3200 Bar); and the polymerization has an ethylene conversion ≥ 28%, and an m value from 20 mole% to 70 mole%, where m = mol% of ethylene-based feed stream to the first reaction zone, based on the total moles of ethylene-based feed streams fed to the reactor configuration; and wherein the ratio (Q) of a "MWD B of a broad polymer polymerized", to a "MWD N of a narrow polymer polymerized", is as follows: {(T) ∗ (-2.3 x log(m) + 7)} ≤ Q ≤{(T) ∗ (-13.0 x log(m) + 29.8)}; and wherein the "MWD B polymer" and the "MWD N polymer" both have the same melt index; and wherein the "T" is the "chain transfer activity ratio" and "T" is from 0.6 to 1.6, and T is defined as follows: T = {[0.1 ∗ ln (Cs narrow MWD process /Cs broad MWD process )] +1}; wherein Cs narrow MWD process and Cs broad MWD process are average Cs values of the CTA system at the outlet of the reactor configuration used to produce, respectively, the narrow and the broad MWD polymers, and wherein MWD B > MWD N .
Apparatus for the treatment of a liquid with magnetic particles, comprising a vessel containing the liquid and a plurality of magnetic particles arranged in the liquid and at least one magnetic and/or magnetizable central element formed in bar shape, dumbbell shape or ellipsoidal shape, wherein the ratio of the longest diameter d2 of the at least one central element to the ratio of the average diameter d1 of the magnetic particles is at least d 2 mm ≥ 15 * d 1 mm wherein the central element is located completely within the interior of the vessel , wherein the apparatus additionally comprises at least one external magnet, which is designed for interaction with the at least one central element such that the central element is movable via the external magnet.
Connecting arrangement comprising a connecting piece and a hose , wherein the hose is pushed with one hose end onto the connecting piece , wherein a press ring is arranged on the hose end , which surrounds the hose on the outside, wherein the press ring is retained on the hose end by a friction fit only, wherein the press ring is made of a plastic material, wherein the inner diameter (DI) in the unloaded state of the press ring is 0-5% smaller than the sum of an outer diameter (DA) of the connecting piece and a doubled material thickness of the hose at the hose end , wherein the press ring is less elastic than the hose , characterised in that the hose end with preassembled press ring is pushed onto the connecting piece , wherein the width (B) of the press ring corresponds to the depth of penetration of the connecting piece into the hose .
A two-component urethane-based composition, comprising: an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a phosphoric acid ester-based anionic dispersant, wherein the phosphoric acid ester-based anionic dispersant is contained in an amount of 1 part by weight or more and less than 20 parts by weight relative to 100 parts by weight of the sum of the ester-based polyol resin and the polyisocyanate. an ester-based polyol resin-containing main composition part; a polyisocyanate-containing curing agent composition part; a filler; and a phosphoric acid ester-based anionic dispersant, wherein the phosphoric acid ester-based anionic dispersant is contained in an amount of 1 part by weight or more and less than 20 parts by weight relative to 100 parts by weight of the sum of the ester-based polyol resin and the polyisocyanate.
A system for providing an improved beam current during silicon ion implantation, comprising: an ion source apparatus partially defined by an arc chamber wall , wherein the chamber comprises a silicon ion source disposed at least partially within the chamber wall; one or more supply vessels in fluid communication with said ion source apparatus, said vessels storing a silicon-based dopant gas composition ; wherein said composition is composed of a first silicon-based species and a second silicon-based species; one or more supply feed lines corresponding to the one or more supply vessels, said feed lines extending from the one or more supply vessels through the wall into the chamber; wherein said one or more vessels are configured to dispense said silicon-based dopant composition through said supply feed lines and into said ion source apparatus thereby allowing the silicon ion source to ionize the silicon-based dopant gas composition to generate at least a portion of the active silicon ions from at least said first silicon-based species; wherein said second silicon-based species is selected to have an ionization cross-section higher than that of the first silicon-based species at an operating arc voltage of the ion source during implantation of active silicon ions; said first silicon-based species is SiF 4 and said second silicon-based species is Si 2 H 6 ; characterized in that the Si 2 H 6 is in an amount of between 2.5 vol% to 5 vol% based on the overall volume of said composition, the active silicon ions producing an increased beam current in comparison to a beam current generated solely from SiF 4 . an ion source apparatus partially defined by an arc chamber wall , wherein the chamber comprises a silicon ion source disposed at least partially within the chamber wall; one or more supply vessels in fluid communication with said ion source apparatus, said vessels storing a silicon-based dopant gas composition ; wherein said composition is composed of a first silicon-based species and a second silicon-based species; one or more supply feed lines corresponding to the one or more supply vessels, said feed lines extending from the one or more supply vessels through the wall into the chamber; wherein said one or more vessels are configured to dispense said silicon-based dopant composition through said supply feed lines and into said ion source apparatus thereby allowing the silicon ion source to ionize the silicon-based dopant gas composition to generate at least a portion of the active silicon ions from at least said first silicon-based species; wherein said second silicon-based species is selected to have an ionization cross-section higher than that of the first silicon-based species at an operating arc voltage of the ion source during implantation of active silicon ions; said first silicon-based species is SiF 4 and said second silicon-based species is Si 2 H 6 ; characterized in that the Si 2 H 6 is in an amount of between 2.5 vol% to 5 vol% based on the overall volume of said composition, the active silicon ions producing an increased beam current in comparison to a beam current generated solely from SiF 4 .
A security implementation method, comprising: obtaining , by a user equipment, a security policy of a session; wherein the security policy of the session is used to indicate a protection mode of the session between the user equipment and an access network node; obtaining , by the user equipment, at least one key; performing , by the user equipment, security protection on session data of the session by using the at least one key based on the security policy of the session, to obtain protected data; and sending , by the user equipment, the protected data of the session to the access network node; wherein the protection mode of the session includes the following three modes: protecting first security of the session data by using a first key based on a first security algorithm; protecting second security of the session data by using a second key based on a second security algorithm; or protecting first security of the session data by using a first key based on a first security algorithm and protecting second security of the session data by using a second key based on a second security algorithm; wherein the first security of the session is a confidentiality of the session, and the second security of the session is an integrity of the session. obtaining , by a user equipment, a security policy of a session; wherein the security policy of the session is used to indicate a protection mode of the session between the user equipment and an access network node; obtaining , by the user equipment, at least one key; performing , by the user equipment, security protection on session data of the session by using the at least one key based on the security policy of the session, to obtain protected data; and sending , by the user equipment, the protected data of the session to the access network node; wherein the protection mode of the session includes the following three modes: protecting first security of the session data by using a first key based on a first security algorithm; protecting second security of the session data by using a second key based on a second security algorithm; or protecting first security of the session data by using a first key based on a first security algorithm and protecting second security of the session data by using a second key based on a second security algorithm; wherein the first security of the session is a confidentiality of the session, and the second security of the session is an integrity of the session. protecting first security of the session data by using a first key based on a first security algorithm; protecting second security of the session data by using a second key based on a second security algorithm; or protecting first security of the session data by using a first key based on a first security algorithm and protecting second security of the session data by using a second key based on a second security algorithm; wherein the first security of the session is a confidentiality of the session, and the second security of the session is an integrity of the session.
Process for the diagnosis of systemic lupus erythematosus (SLE) or of chronic lymphoid leukaemia (CLL) of a subject who may be suffering therefrom, comprising the in vitro detection of the expression of the fraction of the STIM1 protein located at the cell plasma membrane in a biological sample from the subject.
Process for detecting water leaks in smelting furnaces (2; 4) or in metal or alloy treatment plants, comprising the following steps: (i) providing at least one smelting furnace (2; 4), in particular an electric arc furnace , or at least one metal or alloy treatment plant provided with a water cooling system and connected to a process fume exhaust system; (ii) mixing in the cooling water a tracer chemical which is volatile in the event of water leakage together with the exhaust gases from the smelting furnace or metal or alloy treatment plant and which is suitable to be detected by an analysis system of the exhaust gases produced in said at least one smelting furnace (2;4) or in said at least one metal or alloy treatment plant; and (iii) detecting said tracer chemical contained in the exhaust gases by said analysis system comprised in said process fume exhaust plant, wherein said tracer chemical is deuterated water. (i) providing at least one smelting furnace (2; 4), in particular an electric arc furnace , or at least one metal or alloy treatment plant provided with a water cooling system and connected to a process fume exhaust system; (ii) mixing in the cooling water a tracer chemical which is volatile in the event of water leakage together with the exhaust gases from the smelting furnace or metal or alloy treatment plant and which is suitable to be detected by an analysis system of the exhaust gases produced in said at least one smelting furnace (2;4) or in said at least one metal or alloy treatment plant; and (iii) detecting said tracer chemical contained in the exhaust gases by said analysis system comprised in said process fume exhaust plant,
A magnetic core material for electrophotographic developer, having a sulfur component content of from 50 to 700 ppm in terms of a sulfate ion, which is a value measured by combustion ion chromatography method described in the description, and a BET specific surface area, measured as described in the description, of from 0.06 to 0.25 m 2 /g.
A method comprising: - decoding a first portion of video data consisting of an information set, the information set consisting of information representative of a plurality of candidate sets of sample adaptive offset filter parameters, a set of sample adaptive offset parameters comprising at least one information representative of an offset to be added to a sample value of a current block; - decoding from the video data, for the current block, a first syntax element representing an index used for identifying one of the candidate sets of sample adaptive offset filter parameters of the plurality from said video data; - decoding the current block from said video data from a second portion of the video data different from the first portion; and - filtering the decoded current block with the candidate set of sample adaptive offset filter parameters identified by said decoded index; wherein said first portion is signaled with syntax elements at the level of a block of a group of blocks comprising the current block decoded first in decoding order. - decoding a first portion of video data consisting of an information set, the information set consisting of information representative of a plurality of candidate sets of sample adaptive offset filter parameters, a set of sample adaptive offset parameters comprising at least one information representative of an offset to be added to a sample value of a current block; - decoding from the video data, for the current block, a first syntax element representing an index used for identifying one of the candidate sets of sample adaptive offset filter parameters of the plurality from said video data; - decoding the current block from said video data from a second portion of the video data different from the first portion; and - filtering the decoded current block with the candidate set of sample adaptive offset filter parameters identified by said decoded index;
A sports ball comprising: a valve having a double-lock mechanism; a hanging or suspended inflatable bladder attached to the valve ; a carcass surrounding the hanging or suspended inflatable bladder and attached to the valve , wherein the inflatable bladder is not fixedly attached to the carcass ; and a plurality of panels (P) communicative with one another along edges of the panels (P); wherein each panel (P) comprises at least two layers, a casing layer having an outer surface and an inner surface, and a first lining layer having an outer surface and an inner surface; wherein the outer surface of the casing layer forms an exterior surface of the sports ball; wherein the double-lock mechanism of the valve provides two distinct locations of sealing between the inflatable bladder and the exterior surface of the sports ball; wherein the inner surface of the casing layer is communicative with the outer surface of the first lining layer ; wherein the inner surface of the first lining layer is communicative with an outer surface of the carcass ; and wherein an outer flange area of the first lining layer comprises a plurality of grooves extending inwardly and oriented perpendicular to a perimeter edge of the outer flange area . a valve having a double-lock mechanism; a hanging or suspended inflatable bladder attached to the valve ; a carcass surrounding the hanging or suspended inflatable bladder and attached to the valve , wherein the inflatable bladder is not fixedly attached to the carcass ; and a plurality of panels (P) communicative with one another along edges of the panels (P); wherein each panel (P) comprises at least two layers, a casing layer having an outer surface and an inner surface, and a first lining layer having an outer surface and an inner surface; wherein the outer surface of the casing layer forms an exterior surface of the sports ball; wherein the double-lock mechanism of the valve provides two distinct locations of sealing between the inflatable bladder and the exterior surface of the sports ball; wherein the inner surface of the casing layer is communicative with the outer surface of the first lining layer ; wherein the inner surface of the first lining layer is communicative with an outer surface of the carcass ; and wherein an outer flange area of the first lining layer comprises a plurality of grooves extending inwardly and oriented perpendicular to a perimeter edge of the outer flange area .
A built-in cistern with leakage protection, a water outlet connection , a first conduit element for connecting the water inlet connection to a water supply, and a second conduit element for connecting the water outlet connection to a sanitary facility , and a leakage protection device, wherein the leakage protection device is configured as a dimensionally stable and watertight shell , which at least partially encloses the built-in cistern , wherein the shell is open on a front side, characterized in that the shell also encloses the second conduit element .