mhurhangee/ep-ind-claims huggingface dataset:
A device configured to perform apheresis comprising one or more affinity matrices, wherein said one or more affinity matrices are capable of capturing nucleosome-bound cell free DNA (cfDNA), exosome-bound cfDNA, and unbound cfDNA from blood or plasma of a subject, wherein at least one of the one or more affinity matrices comprises a histone.
A cleaning method of a silicon substrate comprising: a first step of etching a surface of a silicon substrate by a metal-ion-containing mixed aqueous solution of an oxidizing agent and hydrofluoric acid, thereby forming a porous layer on the surface of the silicon substrate; a second step of etching the porous layer by mixed acid mainly containing hydrofluoric acid and nitric acid, thereby forming texture on the surface of the silicon substrate; a third step of etching the surface of the silicon substrate on which the texture is formed by an alkaline chemical solution; and a fourth step of treating the silicon substrate etched by the alkaline chemical solution with ozone-containing water, by generating an air bubble within the pore formed in the silicon substrate, thereby removing metal and organic impurities from within the pore. a first step of etching a surface of a silicon substrate by a metal-ion-containing mixed aqueous solution of an oxidizing agent and hydrofluoric acid, thereby forming a porous layer on the surface of the silicon substrate; a second step of etching the porous layer by mixed acid mainly containing hydrofluoric acid and nitric acid, thereby forming texture on the surface of the silicon substrate; a third step of etching the surface of the silicon substrate on which the texture is formed by an alkaline chemical solution; and a fourth step of treating the silicon substrate etched by the alkaline chemical solution with ozone-containing water, by generating an air bubble within the pore formed in the silicon substrate, thereby removing metal and organic impurities from within the pore.
Sensor device for a knife holder, characterised by, - a base body, for purposes of attaching the sensor device to a knife holder, wherein the base body is designed as a rotationally symmetrical knife holder for a round knife, as a ring nut or as a washer, - at least one sensor attached to the base body, for purposes of detecting a variable, and - a transmitter attached to the base body, for purposes of wireless transmission of the variable detected by the sensor. - a base body, for purposes of attaching the sensor device to a knife holder, wherein the base body is designed as a rotationally symmetrical knife holder for a round knife, as a ring nut or as a washer, - at least one sensor attached to the base body, for purposes of detecting a variable, and - a transmitter attached to the base body, for purposes of wireless transmission of the variable detected by the sensor.
A data transmission method, comprising: receiving, by user equipment, UE, uplink shared resource information sent by an evolved NodeB, eNB, wherein the uplink shared resource information comprises location information of M uplink shared resources, the location information including information on a time-frequency resource, the M uplink shared resources are uplink shared resources, allocated by the eNB, that the UE is allowed to use without a need to request grant, and M is an integer greater than or equal to 1; parsing, by the UE, the uplink shared resource information to obtain the location information; and transmitting, by the UE, uplink data on one of the uplink shared resources corresponding to the location information; characterised by the transmitting uplink data on one of the uplink shared resources corresponding to the location information comprising: determining, by the UE from the M uplink shared resources, one to-be-used uplink shared resource in an idle state based on a one-to-one correspondence between the M uplink shared resources and M physical reservation indication channels, PRICHs, transmitted by the eNB; and transmitting, by the UE, the uplink data on the to-be-used uplink shared resource. receiving, by user equipment, UE, uplink shared resource information sent by an evolved NodeB, eNB, wherein the uplink shared resource information comprises location information of M uplink shared resources, the location information including information on a time-frequency resource, the M uplink shared resources are uplink shared resources, allocated by the eNB, that the UE is allowed to use without a need to request grant, and M is an integer greater than or equal to 1; parsing, by the UE, the uplink shared resource information to obtain the location information; and transmitting, by the UE, uplink data on one of the uplink shared resources corresponding to the location information; characterised by the transmitting uplink data on one of the uplink shared resources corresponding to the location information comprising: determining, by the UE from the M uplink shared resources, one to-be-used uplink shared resource in an idle state based on a one-to-one correspondence between the M uplink shared resources and M physical reservation indication channels, PRICHs, transmitted by the eNB; and transmitting, by the UE, the uplink data on the to-be-used uplink shared resource. determining, by the UE from the M uplink shared resources, one to-be-used uplink shared resource in an idle state based on a one-to-one correspondence between the M uplink shared resources and M physical reservation indication channels, PRICHs, transmitted by the eNB; and transmitting, by the UE, the uplink data on the to-be-used uplink shared resource.
A data transmission method, comprising: performing, by a transmit end, transmit power enhancement processing on a target field of a preamble in a wireless local area network, WLAN, system, wherein the target field comprises one or more fields, except a non-legacy signal field, in a non-legacy field of the preamble in the WLAN system; and sending, by the transmit end, to a receive end the preamble on which transmit power enhancement processing has been performed; characterized by the performing, by a transmit end, transmit power enhancement processing on a target field of a preamble in a wireless local area network, WLAN, system comprises: determining a power enhancement amount of the target field according to a peak-to-average power ratio, PAPR, corresponding to the target field and a transmit power amplification limit of the transmit end; and generating a baseband signal of the target field according to the power enhancement amount of the target field. performing, by a transmit end, transmit power enhancement processing on a target field of a preamble in a wireless local area network, WLAN, system, wherein the target field comprises one or more fields, except a non-legacy signal field, in a non-legacy field of the preamble in the WLAN system; and sending, by the transmit end, to a receive end the preamble on which transmit power enhancement processing has been performed; characterized by the performing, by a transmit end, transmit power enhancement processing on a target field of a preamble in a wireless local area network, WLAN, system comprises: determining a power enhancement amount of the target field according to a peak-to-average power ratio, PAPR, corresponding to the target field and a transmit power amplification limit of the transmit end; and generating a baseband signal of the target field according to the power enhancement amount of the target field. determining a power enhancement amount of the target field according to a peak-to-average power ratio, PAPR, corresponding to the target field and a transmit power amplification limit of the transmit end; and generating a baseband signal of the target field according to the power enhancement amount of the target field.
A method of enabling a platform to accommodate multiple user accounts, comprising: via a processor, assigning to a first application used by a first user account a first user identifier unique to the first user account and the first application; associating the first UID with user data exclusively associated with the first user account and the first application; allocating to the first user account a first range of a plurality of UIDs, wherein the first UID is selected from the first range of the plurality of UIDs; assigning to a second application used by a second user account a second UID unique to the second user account and the second application; associating the second UID with user data exclusively associated with the second user account and the second application; and allocating to the second user account a second range of UIDs, wherein the second UID is selected from the second range ofUIDs and wherein the UIDs of the first range of the plurality of UIDs are orthogonal to the UIDs of the second range of UIDs to enable data associated with the first user account to be segregated from data associated with the second user account, such that the platform is enabled to accommodate a plurality of user accounts. via a processor, assigning to a first application used by a first user account a first user identifier unique to the first user account and the first application; associating the first UID with user data exclusively associated with the first user account and the first application; allocating to the first user account a first range of a plurality of UIDs, wherein the first UID is selected from the first range of the plurality of UIDs; assigning to a second application used by a second user account a second UID unique to the second user account and the second application; associating the second UID with user data exclusively associated with the second user account and the second application; and allocating to the second user account a second range of UIDs, wherein the second UID is selected from the second range ofUIDs and wherein the UIDs of the first range of the plurality of UIDs are orthogonal to the UIDs of the second range of UIDs to enable data associated with the first user account to be segregated from data associated with the second user account, such that the platform is enabled to accommodate a plurality of user accounts.
A cast alloy, consisting of: iron 0.8-3.0% by weight magnesium 2.0 to 7.0% manganese 0-2.5% by weight beryllium 0-500 ppm titanium 0-0.5% by weight silicon 0-0.4% by weight strontium 0-0.8% by weight phosphorus 0-500 ppm copper 0-4% by weight zinc 0-10% by weight 0-0.5% by weight of an element or a group of elements selected from the group consisting of chromium, nickel, molybdenum, zirconium, vanadium, hafnium, calcium, gallium and boron, with the remainder being aluminum and unavoidable impurities. iron 0.8-3.0% by weight magnesium 2.0 to 7.0% manganese 0-2.5% by weight beryllium 0-500 ppm titanium 0-0.5% by weight silicon 0-0.4% by weight strontium 0-0.8% by weight phosphorus 0-500 ppm copper 0-4% by weight zinc 0-10% by weight 0-0.5% by weight of an element or a group of elements selected from the group consisting of chromium, nickel, molybdenum, zirconium, vanadium, hafnium, calcium, gallium and boron, with the remainder being aluminum and unavoidable impurities.
A method of producing a mixture of fibroin and polyurethane, comprising the following steps: solubilizing fibroin in formic acid to obtain a first solution; solubilizing polyurethane into a combination of formic acid and dichloromethane to obtain a second solution; mixing the first solution with the second solution together, obtaining a mixture of fibroin and polyurethane dissolved in a final solution of formic acid and dichloromethane, wherein said final solution of formic acid and dichloromethane comprises 3 parts of formic acid and 2 parts of dichloromethane; and wherein said fibroin is solubilized in two parts of formic acid to obtain said first solution; said polyurethane is solubilized into a combination of one part of formic acid and two parts of dichloromethane to obtain said second solution; and wherein the total concentration of fibroin in the final solution of formic acid and dichloromethane is in the range from 0.01% w/v to 98.01% w/v and the total concentration of polyurethane in the final solution of formic acid and dichloromethane is in the range from 0.01% w/v to 98.01% w/v. wherein said fibroin is solubilized in two parts of formic acid to obtain said first solution; said polyurethane is solubilized into a combination of one part of formic acid and two parts of dichloromethane to obtain said second solution; and wherein the total concentration of fibroin in the final solution of formic acid and dichloromethane is in the range from 0.01% w/v to 98.01% w/v and the total concentration of polyurethane in the final solution of formic acid and dichloromethane is in the range from 0.01% w/v to 98.01% w/v.
A turbine section for a gas turbine engine comprising: a static structure; at least one rotor rotating about an axis, said rotor being provided with rotor blades, and said rotor and rotor blades being radially spaced from said static structure, said rotor and rotor blades having knife edge seals (36; 82; 92) extending close to at least a portion of said static structure to provide a seal, and said static structure having concave pockets (38; 84; 94) associated with at least a plurality of said knife edge seals (36; 82; 92), said concave pockets (38; 84; 94) being defined by a radially inner surface spaced from a radially outer surface, characterised in that: said concave pockets (38; 84; 94) are configured to create a vortex in fluid flow leaking past an associated knife edge seal (36; 82; 92); and said knife edge seals (36; 82; 92) extend along a non-perpendicular angle relative to said rotor rotation axis along a path heading in a downstream direction. a static structure; at least one rotor rotating about an axis, said rotor being provided with rotor blades, and said rotor and rotor blades being radially spaced from said static structure, said rotor and rotor blades having knife edge seals (36; 82; 92) extending close to at least a portion of said static structure to provide a seal, and said static structure having concave pockets (38; 84; 94) associated with at least a plurality of said knife edge seals (36; 82; 92), said concave pockets (38; 84; 94) being defined by a radially inner surface spaced from a radially outer surface, said concave pockets (38; 84; 94) are configured to create a vortex in fluid flow leaking past an associated knife edge seal (36; 82; 92); and said knife edge seals (36; 82; 92) extend along a non-perpendicular angle relative to said rotor rotation axis along a path heading in a downstream direction.
A data processing method in a receiving device, comprising: receiving a first data flow, wherein the first data flow is a 1× symbol rate data flow obtained after a 2× symbol rate quadrature phase shift keying, QPSK, modulation signal undergoes frame synchronization adjustment, balancing, data extraction, and constellation position determining; performing interpolation into the first data flow of a 1x symbol rate to obtain a second data flow of a 2× symbol rate; receiving a third data flow, and calculating a data flow signal quality difference between the third data flow and the second data flow, wherein the third data flow is a 2× symbol rate data flow obtained after the 2× symbol rate QPSK modulation signal undergoes frame synchronization adjustment and balancing; and obtaining a digital pre-distortion DPD non-linear distortion compensation coefficient according to the data flow signal quality difference and the third data flow or the second data flow. receiving a first data flow, wherein the first data flow is a 1× symbol rate data flow obtained after a 2× symbol rate quadrature phase shift keying, QPSK, modulation signal undergoes frame synchronization adjustment, balancing, data extraction, and constellation position determining;
A method for manufacturing a preparation using acetaminophen having a particle size distribution that d10 is 5 to 300 μm and d90 is 200 to 900 μm, and preferably d10 is 10 to 200 μm and d90 is 250 to 800 μm, wherein the particle size distribution is determined by a volume distribution evaluation employing a laser-diffraction scattering method (Mastersizer 2000: Malvern), and the terms "d10" and "d90" refer to particle diameters at a volume cumulative 10% point and a volume cumulative 90% point, respectively, as observed from the smaller diameter side in the particle size distribution.
A ballast water treatment device, comprising: a filtering unit filtering ballast water introduced into a ship using a filter; a vortex generating unit generating an artificial vortex in the ballast water filtered by the filtering unit; and an ultraviolet treatment unit having an ultraviolet lamp, which sterilizes the ballast water discharged from the vortex generating unit using ultraviolet rays, and a protective screen generating a vortex in ballast water, and removing foreign substances from the ballast water, thus protecting the ultraviolet treatment unit, wherein the protective screen is provided on a front end of the ultraviolet treatment unit, whereby the ballast water is uniformly mixed by the vortex generated by the vortex generating unit, so that a sterilization effect is enhanced, and a distance between the filtering unit and the ultraviolet treatment unit is reduced, so that compactness of the ballast water treatment device is realized. a filtering unit filtering ballast water introduced into a ship using a filter; a vortex generating unit generating an artificial vortex in the ballast water filtered by the filtering unit; and an ultraviolet treatment unit having an ultraviolet lamp, which sterilizes the ballast water discharged from the vortex generating unit using ultraviolet rays, and a protective screen generating a vortex in ballast water, and removing foreign substances from the ballast water, thus protecting the ultraviolet treatment unit, wherein the protective screen is provided on a front end of the ultraviolet treatment unit, whereby the ballast water is uniformly mixed by the vortex generated by the vortex generating unit, so that a sterilization effect is enhanced, and a distance between the filtering unit and the ultraviolet treatment unit is reduced, so that compactness of the ballast water treatment device is realized.
An ex vivo method for inactivating Methicillin-resistant Staphylococcus aureus MRSA, said method consisting of the use of visible light generated by a light source configured to output visible light consisting of light having a wavelength in the range 400-420 nm, wherein the visible light inactivates MRSA and said use does not require a photosensitiser.
A method of producing a 1,3 fatty diol comprising: (a) providing a recombinant microorganism in a fermentation broth, said microorganism being engineered to express a nucleic acid sequence encoding a polypeptide comprising an acyl-ACP reductase (EC 1.2.1.80 or EC 1.2.1.42) activity, the microorganism further expressing a nucleic acid sequence encoding a polypeptide comprising an alcohol dehydrogenase (EC 1.1.1.-) activity; and (b) isolating a 1,3 fatty diol from said fermentation broth; wherein said fermentation broth comprises a simple carbon source. (a) providing a recombinant microorganism in a fermentation broth, said microorganism being engineered to express a nucleic acid sequence encoding a polypeptide comprising an acyl-ACP reductase (EC 1.2.1.80 or EC 1.2.1.42) activity, the microorganism further expressing a nucleic acid sequence encoding a polypeptide comprising an alcohol dehydrogenase (EC 1.1.1.-) activity; and (b) isolating a 1,3 fatty diol from said fermentation broth;
Method for determining unauthorized intrusion through a door or through another closure of an opening in a wall, referred to as a door below, having the steps of: a) determining a movement course of the door on the basis of the time in all three spatial axes by means of a receiving and evaluating device using a motion sensor in an active mode, b) determining parameters in all three spatial axes on the basis of the movement course of the door determined using the motion sensor on the basis of the time by means of the receiving and evaluating device, wherein the receiving and evaluating device determines that there is unauthorized intrusion at the door if the actual value of the respective parameter is within an associated parameter range for unauthorized intrusion that is stored in a storage device, c) determining an opening angle of the door by means of the receiving and evaluating device using an angle measuring sensor if unauthorized intrusion has been determined, d) comparing the opening angle of the door with a threshold value for the opening angle of the door, up to which the door is considered to be closed, by means of the receiving and evaluating device; e) wherein the receiving and evaluating device determines that the door is open when the opening angle exceeds the threshold value for the opening angle of the door, up to which the door is considered to be closed, and wherein the receiving and evaluating device outputs an alarm signal if the door is open. a) determining a movement course of the door on the basis of the time in all three spatial axes by means of a receiving and evaluating device using a motion sensor in an active mode, b) determining parameters in all three spatial axes on the basis of the movement course of the door determined using the motion sensor on the basis of the time by means of the receiving and evaluating device, wherein the receiving and evaluating device determines that there is unauthorized intrusion at the door if the actual value of the respective parameter is within an associated parameter range for unauthorized intrusion that is stored in a storage device, c) determining an opening angle of the door by means of the receiving and evaluating device using an angle measuring sensor if unauthorized intrusion has been determined, d) comparing the opening angle of the door with a threshold value for the opening angle of the door, up to which the door is considered to be closed, by means of the receiving and evaluating device; e) wherein the receiving and evaluating device determines that the door is open when the opening angle exceeds the threshold value for the opening angle of the door, up to which the door is considered to be closed, and wherein the receiving and evaluating device outputs an alarm signal if the door is open.
A communication method, performed by a radio access network node, wherein the communication method comprises: receiving, by the radio access network node, an initial UE context setup message from a core-network node, wherein the initial UE context setup message comprises a network slice identifier corresponding to a network slice allowed to be accessed by a terminal device, wherein the network slice identifier is used to indicate at least one network slice allowed to be accessed by the terminal device; and sending, by the radio access network node, a first network slice management request reply message to the core-network node, the first network slice management request reply message being a reply to the initial UE context setup message. receiving, by the radio access network node, an initial UE context setup message from a core-network node, wherein the initial UE context setup message comprises a network slice identifier corresponding to a network slice allowed to be accessed by a terminal device, wherein the network slice identifier is used to indicate at least one network slice allowed to be accessed by the terminal device; and sending, by the radio access network node, a first network slice management request reply message to the core-network node, the first network slice management request reply message being a reply to the initial UE context setup message.