mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the presence of a pulmonary tumor in a subject, the method comprising: (a) determine the expression ratio of an miRNA pair in a biological sample from the subject; (b) compare the expression ratio from step (a) with a cut-off value determined from the average ratio of a plurality of corresponding miRNA pairs from a plurality of control samples; (c) assign a positive score for the expression ratio of the miRNA pair in step (a) if the ratio exceeds the cut-off value in step (b), or assign a non-positive score for the expression ratio of the miRNA pair in step (a) if the ratio does not exceed the cut-off value in step (b); (d) repeat steps (a) through (c) for additional miRNA pairs until either at least nine miRNA pair expression ratios are assigned a positive score, or after the comparison of the expression ratios of 27 miRNA pairs less than nine miRNA pair expression ratios are assigned a positive score, wherein the miRNA pairs comprise one or more or each of 106a/140-5p, 106a/142-3p, 126/140-5p, 126/142-3p, 133a/142-3p, 140-5p/17, 142-3p/148a, 142-3p/15b, 142-3p/17, 142-3p/21, 142-3p/221, 142-3p/30b, and 320/660, or the inverse ratios thereof; and (e) categorize the presence of a pulmonary tumor as (i) positive if at least nine of the miRNA pair expression ratios are assigned a positive score, or (ii) negative if less than nine miRNA pair expression ratios are assigned a positive score. (a) determine the expression ratio of an miRNA pair in a biological sample from the subject; (b) compare the expression ratio from step (a) with a cut-off value determined from the average ratio of a plurality of corresponding miRNA pairs from a plurality of control samples; (c) assign a positive score for the expression ratio of the miRNA pair in step (a) if the ratio exceeds the cut-off value in step (b), or assign a non-positive score for the expression ratio of the miRNA pair in step (a) if the ratio does not exceed the cut-off value in step (b); (d) repeat steps (a) through (c) for additional miRNA pairs until either at least nine miRNA pair expression ratios are assigned a positive score, or after the comparison of the expression ratios of 27 miRNA pairs less than nine miRNA pair expression ratios are assigned a positive score, wherein the miRNA pairs comprise one or more or each of 106a/140-5p, 106a/142-3p, 126/140-5p, 126/142-3p, 133a/142-3p, 140-5p/17, 142-3p/148a, 142-3p/15b, 142-3p/17, 142-3p/21, 142-3p/221, 142-3p/30b, and 320/660, or the inverse ratios thereof; and (e) categorize the presence of a pulmonary tumor as (i) positive if at least nine of the miRNA pair expression ratios are assigned a positive score, or (ii) negative if less than nine miRNA pair expression ratios are assigned a positive score.
An epoxy resin composition comprising the following constituent elements,, and:: epoxy resin,: aromatic amine compound,: organic acid hydrazide compound having a structural formula represented by a general formula or a general formula: in which X is a structure selected from among monocyclic aromatic ring structures, polycyclic aromatic ring structures and aromatic heterocyclic structures, and optionally has, as a substituent, any of alkyl groups having 4 or less carbon atoms, a hydroxy group and amino group, and: thermoplastic resin, wherein the amount of the constituent element is 1 to 25 parts by mass with respect to 100 parts by mass of the constituent element, and the amount of constituent ingredient is 15 to 30 parts by mass with respect to 100 parts by mass of the constituent element, and the viscosity of the epoxy resin composition after having been held at 80°C for 2 hours, is up to 2.0 times larger than the initial viscosity at 80°C, and the initial viscosity of the epoxy resin composition at 80°C is in the range of 0.5 to 200 Pa·s, and the average particle diameter of the constituent element is 30 μm or less; and wherein the average particle diameter, initial viscosity of the epoxy resin composition at 80°C and viscosity of the epoxy resin composition after having been held at 80°C for 2 hours are measured by the methods set out in the description.: epoxy resin,: aromatic amine compound,: organic acid hydrazide compound having a structural formula represented by a general formula or a general formula: in which X is a structure selected from among monocyclic aromatic ring structures, polycyclic aromatic ring structures and aromatic heterocyclic structures, and optionally has, as a substituent, any of alkyl groups having 4 or less carbon atoms, a hydroxy group and amino group, and: thermoplastic resin, wherein the amount of the constituent element is 1 to 25 parts by mass with respect to 100 parts by mass of the constituent element, and the amount of constituent ingredient is 15 to 30 parts by mass with respect to 100 parts by mass of the constituent element, and the viscosity of the epoxy resin composition after having been held at 80°C for 2 hours, is up to 2.0 times larger than the initial viscosity at 80°C, and the initial viscosity of the epoxy resin composition at 80°C is in the range of 0.5 to 200 Pa·s, and the average particle diameter of the constituent element is 30 μm or less; and wherein the average particle diameter, initial viscosity of the epoxy resin composition at 80°C and viscosity of the epoxy resin composition after having been held at 80°C for 2 hours are measured by the methods set out in the description.
A connector comprising: a contact provided for coming into contact with a connection target to be electrically connected thereto; a contact holder formed of resin, the contact holder housing and holding the contact therein; a shell formed of metal and accommodating the contact holder; a case formed of resin and accommodating the shell; characterized in that the connector further comprises: a stopper inserted into a first hole portion formed in the case and a second hole portion formed in the shell, the second hole portion having a same shape as the first hole portion and being overlapped with the first hole portion, wherein the first hole portion and the second hole portion have rectangular opening shapes; an inner end of the stopper which comes into contact with an outer wall of the contact holder has a same shape as the opening shapes of the first and second hole portions,; and when the stopper is inserted into the first hole portion and the second hole portion, the inner end of the stopper comes into contact with the outer wall of the contact holder. a contact provided for coming into contact with a connection target to be electrically connected thereto; a contact holder formed of resin, the contact holder housing and holding the contact therein; a shell formed of metal and accommodating the contact holder; a case formed of resin and accommodating the shell; characterized in that the connector further comprises: a stopper inserted into a first hole portion formed in the case and a second hole portion formed in the shell, the second hole portion having a same shape as the first hole portion and being overlapped with the first hole portion, wherein the first hole portion and the second hole portion have rectangular opening shapes; an inner end of the stopper which comes into contact with an outer wall of the contact holder has a same shape as the opening shapes of the first and second hole portions,; and when the stopper is inserted into the first hole portion and the second hole portion, the inner end of the stopper comes into contact with the outer wall of the contact holder. a stopper inserted into a first hole portion formed in the case and a second hole portion formed in the shell, the second hole portion having a same shape as the first hole portion and being overlapped with the first hole portion, wherein the first hole portion and the second hole portion have rectangular opening shapes; an inner end of the stopper which comes into contact with an outer wall of the contact holder has a same shape as the opening shapes of the first and second hole portions,; and when the stopper is inserted into the first hole portion and the second hole portion, the inner end of the stopper comes into contact with the outer wall of the contact holder.
A data synchronization method, implemented by a first processor, comprising: determining a descriptor of to-be-synchronized tensor data, wherein the descriptor describes a shape of the tensor data; generating a descriptor synchronization instruction according to the descriptor of the tensor data, where the descriptor synchronization instruction includes an identifier of the descriptor and/or content of the descriptor, and sending the descriptor synchronization instruction to a second processor, where the descriptor synchronization instruction is configured to instruct the second processor to obtain the tensor data according to the descriptor synchronization instruction, thereby achieving a synchronization of tensor data between the first processor and the second processor. determining a descriptor of to-be-synchronized tensor data, wherein the descriptor describes a shape of the tensor data; generating a descriptor synchronization instruction according to the descriptor of the tensor data, where the descriptor synchronization instruction includes an identifier of the descriptor and/or content of the descriptor, and sending the descriptor synchronization instruction to a second processor, where the descriptor synchronization instruction is configured to instruct the second processor to obtain the tensor data according to the descriptor synchronization instruction, thereby achieving a synchronization of tensor data between the first processor and the second processor.
A working fluid for a heat transfer device comprising: i) a refrigerant comprising at least 90% by weight of the refrigerant of difluoromethane (R-32) and ii) a polyol ester lubricant composition having a kinematic viscosity at 40 °C of from 32 to 100 cSt and comprising a mixture of C 5-10 alkylcarboxy neopentyl polyol esters, said neopentyl polyol esters comprising a mixture of C 5-10 alkylcarboxy esters of pentaerythritol, di-pentaerythritol, tri-pentaerythritol and oligomers comprising 4 or more pentaerythritol monomers, wherein at least 10 wt % of all neopentyl polyol esters are esters of oligomers containing 4 or more neopentyl polyol monomer units, and wherein 75 mole % or more of all the C 5-10 alkylcarboxy neopentyl polyol esters are linear or branched C 5 alkylcarboxy esters, and 15-40% of all the C 5 alkylcarboxy esters are branched. i) a refrigerant comprising at least 90% by weight of the refrigerant of difluoromethane (R-32) and ii) a polyol ester lubricant composition having a kinematic viscosity at 40 °C of from 32 to 100 cSt and comprising a mixture of C 5-10 alkylcarboxy neopentyl polyol esters, said neopentyl polyol esters comprising a mixture of C 5-10 alkylcarboxy esters of pentaerythritol, di-pentaerythritol, tri-pentaerythritol and oligomers comprising 4 or more pentaerythritol monomers, wherein at least 10 wt % of all neopentyl polyol esters are esters of oligomers containing 4 or more neopentyl polyol monomer units, and
A method for determining virtual machine, VM, migration, wherein the method comprises: after the VM is migrated from a second device to a first device, obtaining, by the first device, a Media Access Control, MAC, address of the VM from a local interface, and perceiving, by the first device, according to a same MAC address already learned from the second device, that the VM is migrated; sending, by the first device, an address resolution protocol, ARP, request packet to the VM according to the MAC address of the VM, the ARP request packet is used to probe the VM; receiving, by the first device, an ARP response packet from the VM; and; determining, by the first device, that the VM has migrated based on the received ARP response packet. after the VM is migrated from a second device to a first device, obtaining, by the first device, a Media Access Control, MAC, address of the VM from a local interface, and perceiving, by the first device, according to a same MAC address already learned from the second device, that the VM is migrated; sending, by the first device, an address resolution protocol, ARP, request packet to the VM according to the MAC address of the VM, the ARP request packet is used to probe the VM; receiving, by the first device, an ARP response packet from the VM; and; determining, by the first device, that the VM has migrated based on the received ARP response packet.
An implantable tissue support structure for supporting musculoaponeurotic tissue, said tissue support structure being formed by a plurality of monofilament thread sections, said monofilament thread sections defining a surface having a plurality of open spaces, the tissue support structure characterized in that said surface comprises less than 10,000 thread intersections per one-hundred square centimeters, said thread intersections being defined as a crossing of two of said monofilament thread sections, characterized in that per one-hundred square centimeters of said surface each of at least four of said open spaces has an area greater than one-hundred square millimeters and up to three thousand square millimeters.
A compound of formula or a cosmetically acceptable salt of a compound of formula wherein R 1 is selected from the group consisting of a C 1 -C 2 alkyl group, a C 5 -C 12 aryl group or a benzyl group; R 2 is the amino acid side chain of arginine, lysine, 2,4-diaminobutyric acid, homolysine, ornithine or 2-aminohexanoic acid; R 3 or R 3' are selected from the group consisting of H, an unsubstituted aryl(m)ethyl group and an unsubstituted heteroaryl(m)ethyl group; and R 4 and R 5 are, independently of each other, H or a C 1 -C 10 alkyl group; and with the proviso that only one of R 3 or R 3' is H and the respective other one of R 3 and R 3' is not H. R 1 is selected from the group consisting of a C 1 -C 2 alkyl group, a C 5 -C 12 aryl group or a benzyl group; R 2 is the amino acid side chain of arginine, lysine, 2,4-diaminobutyric acid, homolysine, ornithine or 2-aminohexanoic acid; R 3 or R 3' are selected from the group consisting of H, an unsubstituted aryl(m)ethyl group and an unsubstituted heteroaryl(m)ethyl group; and R 4 and R 5 are, independently of each other, H or a C 1 -C 10 alkyl group; and with the proviso that only one of R 3 or R 3' is H and the respective other one of R 3 and R 3' is not H.
A helicopter, comprising: a vibration transmitting member; rotor blades rotatably supported by said vibration transmitting member, wherein said rotor blades generate thrust force of said helicopter by rotations thereof; and a vibration reduction apparatus, comprising: a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor. a vibration transmitting member; rotor blades rotatably supported by said vibration transmitting member, wherein said rotor blades generate thrust force of said helicopter by rotations thereof; and a vibration reduction apparatus, comprising: a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor. a vibration absorbing element (13-i) configured to apply a force to the vibration transmitting member fixed to a targeted object so as to bend said vibration transmitting member; an acceleration sensor (11-1 to 11-3) configured to measure an acceleration of said targeted object; and a rotational velocity sensor configured to measure a number of rotations per unit time of the rotor blades; and a controller configured to control said vibration absorbing element (13-i) based on said acceleration measured by the acceleration sensor (11-1 to 11-3) and said number of rotations per unit time measured by the rotational velocity sensor.
A battery charging method, comprising: (a) obtaining voltage capacity ratios values for a reference charge C-rate and N charge C-rates which are larger than the reference charge C-rate, wherein N is an integer of 1 or more, the voltage capacity ratio values of a said C-rate being defined as a ratio of a voltage variance to a capacity variance depending on a change in state of charge, SOC, of a battery when the battery is charged with said C-rate; (b) comparing the voltage capacity ratio values of the reference charge C-rate with each of the voltage capacity ratios values of the N charge C-rates in a number of SOC sections, and then setting a charge C-rate for each SOC section from among the N charge C-rates so that a difference in voltage capacity ratio values between the set charge C-rate and the reference charge C-rate is within a preset range for each of the SOC sections; and (c) charging the battery with the charge C-rate that is set for each of the SOC sections. (a) obtaining voltage capacity ratios values for a reference charge C-rate and N charge C-rates which are larger than the reference charge C-rate, wherein N is an integer of 1 or more, the voltage capacity ratio values of a said C-rate being defined as a ratio of a voltage variance to a capacity variance depending on a change in state of charge, SOC, of a battery when the battery is charged with said C-rate; (b) comparing the voltage capacity ratio values of the reference charge C-rate with each of the voltage capacity ratios values of the N charge C-rates in a number of SOC sections, and then setting a charge C-rate for each SOC section from among the N charge C-rates so that a difference in voltage capacity ratio values between the set charge C-rate and the reference charge C-rate is within a preset range for each of the SOC sections; and (c) charging the battery with the charge C-rate that is set for each of the SOC sections.
A connector suitable for at least one two-wire, high-speed, shielded transmission line with a predetermined constant impedance, characterized in that it comprises in combination, for each two-wire line: - two parallel pins, (25a or 25b), - an insulating insert (26a or 26b) in which said pins are mounted, only, - a metal casing comprising a sleeve (30a,30b) open at one of its ends, said sleeve housing said insert and said pins, and - a connection printed circuit installed in said casing, coupled to said pins and configured to control the connection geometry of said two-wire line in said casing. - two parallel pins, (25a or 25b), - an insulating insert (26a or 26b) in which said pins are mounted, only, - a metal casing comprising a sleeve (30a,30b) open at one of its ends, said sleeve housing said insert and said pins, and - a connection printed circuit installed in said casing, coupled to said pins and configured to control the connection geometry of said two-wire line in said casing.
A pelvic implant for supporting levator tissue, the implant comprising: a tissue support portion having a first end and a second end; a tissue fastener disposed on the first end of the tissue support portion for fastening to levator tissue; a guide extension portion disposed on the second end of the tissue support portion, the guide extension portion comprising a rod; and a support backer member attachable to the guide extension portion to adjust a tension of the tissue support portion and concomitantly the levator tissue. a tissue support portion having a first end and a second end; a tissue fastener disposed on the first end of the tissue support portion for fastening to levator tissue; a guide extension portion disposed on the second end of the tissue support portion, the guide extension portion comprising a rod; and a support backer member attachable to the guide extension portion to adjust a tension of the tissue support portion and concomitantly the levator tissue.
An audio system for disposing in the external region of an ear, having a carrier element for applying to the head of the user which is integrated into an eyewear earpiece or is designed as an eyewear earpiece and comprising at least one hollow space (26, 27, 28) having a primary opening (11, 12, 13) oriented in the direction of an ear opening of the intended ear when the carrier element is disposed as intended, and having at least one speaker (5, 6, 7) disposed in the hollow space (26, 27, 28), by means of which first sound waves can be emitted through the primary opening (11, 12, 13) in the direction of the ear spaced apart from said opening (11, 12, 13), characterized in that, the cavity (14, 15, 16) of the speaker (5, 6,7) being at least partially formed by a first hollow space region of the hollow space (26, 27, 28) and the hollow space (26, 27, 28) comprises a secondary opening (17, 18, 19) disposed in the first hollow space region such that said opening is oriented away from the ear toward the surrounding area when the carrier element is disposed as intended, so that second sound waves can be emitted through the secondary opening (17, 18, 19) by means of the speaker (5, 6, 7), said waves being offset in phase from the first sound waves such that the volume of the sound waves emitted by the audio system into the surrounding area can be reduced.
Method for the plasma treatment of hollow body-shaped workpieces, in which a treatment region is at least partially evacuated in a reactor chamber, a process gas is introduced into the treatment region, in particular into the cavity of the workpiece, and a plasma is produced by means of introduced electromagnetic energy in the surrounding area of at least a part of the surface of the workpiece, characterised in that the plasma is ignited during an excitation of gas by a glow discharge in a space, which is separated from the reactor chamber, by introduction of electromagnetic energy into the introduced process gas, and that the process gas flows through the treatment region between opposite ends of the region during the plasma treatment.
An electrode for an electrolytic process, consisting of a non-metallic electrode substrate, a build-up layer grown on the electrode substrate and having a changing chemical composition in the direction of the layer growth, and a coating grown on the build-up layer and having crystalline diamond, characterized in that the build-up layer comprises silicon growths in the form of silicon particles at the border surface to the coating having crystalline diamond, said silicon particles having an average size of 100 nm to 2,000 nm, and the silicon particles' spatial distribution density being between 50,000 particles/mm 2 and 500,000 particles/mm 2.