mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a package substrate for mounting a semiconductor device , comprising: a substrate forming step (a) of forming a supporting substrate for circuit formation comprising a first insulating resin layer , a release layer comprising at least a silicon compound, and ultrathin copper foil having a thickness of 1 μm to 5 μm, in this order; a first wiring conductor forming step (b) of forming a first wiring conductor on the ultrathin copper foil of the supporting substrate for circuit formation by pattern copper electroplating; a lamination step (c) of disposing a second insulating resin layer so as to be in contact with the first wiring conductor , and heating and pressurizing the second insulating resin layer for lamination; a second wiring conductor forming step (d) of forming in the second insulating resin layer a non-through hole reaching the first wiring conductor and connecting an inner wall of the non-through hole by copper electroplating and/or electroless copper plating to form a second wiring conductor ; a peeling step (e) of peeling the first insulating resin layer from the supporting substrate for circuit formation on which the first wiring conductor and the second wiring conductor are formed; and a removal step (f) of removing the release layer and/or the ultrathin copper foil , wherein the thickness of the release layer is 5 nm to 100 nm and wherein the silicon compound comprised in the release layer is not a silicone compound. a substrate forming step (a) of forming a supporting substrate for circuit formation comprising a first insulating resin layer , a release layer comprising at least a silicon compound, and ultrathin copper foil having a thickness of 1 μm to 5 μm, in this order; a first wiring conductor forming step (b) of forming a first wiring conductor on the ultrathin copper foil of the supporting substrate for circuit formation by pattern copper electroplating; a lamination step (c) of disposing a second insulating resin layer so as to be in contact with the first wiring conductor , and heating and pressurizing the second insulating resin layer for lamination; a second wiring conductor forming step (d) of forming in the second insulating resin layer a non-through hole reaching the first wiring conductor and connecting an inner wall of the non-through hole by copper electroplating and/or electroless copper plating to form a second wiring conductor ; a peeling step (e) of peeling the first insulating resin layer from the supporting substrate for circuit formation on which the first wiring conductor and the second wiring conductor are formed; and a removal step (f) of removing the release layer and/or the ultrathin copper foil , wherein the thickness of the release layer is 5 nm to 100 nm and wherein the silicon compound comprised in the release layer is not a silicone compound.
A composition comprising an extract of Polygonum minus in effective amounts in combination with or without other agent wherein the other agent is pharmaceutical agent and wherein the extract comprises quercetin-3-glucuronide and quercitrin wherein the quercetin -3-glucuronide is in amounts of 0.5% by weight of the extract of Polygonum minus and the quercitrin is in amounts of 0.2% by weight of the extract of Polygonum minus for use in the treatment of deficits in learning and memory.
A connector lock structure comprising: a connector housing that is able to be fitted to a counterpart connector housing ; a lock arm that extends along a fitting direction and is formed on a side wall of the connector housing , has a front portion integrally connected to a front end of the side wall of the connector housing and maintains a fitted state by being elastically engaged with the counterpart connector housing ; a pair of flexible and deformable plate-shaped support walls that protrude rearward of the side wall with reference to the fitting direction to sandwich a rear portion of the lock arm therebetween; a coupling portion that couples each of the plate-shaped support walls to the rear portion of the lock arm in a width direction of the connector housing ( ) and has a reduced coupling length along the fitting direction due to a slit provided on a front side of the coupling portion ; and an upward protruding portion that protrudes upward transversally to the fitting direction higher than the coupling portion and is formed on each of the plate-shaped support walls ; characterized in that the coupling portion integrally couples each of the plate-shaped support walls to the rear portion of the lock arm in the width direction of the connector housing ; and wherein the rear portion of the lock arm is integrally connected to a rear end of the side wall of the connector housing . a connector housing that is able to be fitted to a counterpart connector housing ; a lock arm that extends along a fitting direction and is formed on a side wall of the connector housing , has a front portion integrally connected to a front end of the side wall of the connector housing and maintains a fitted state by being elastically engaged with the counterpart connector housing ; a pair of flexible and deformable plate-shaped support walls that protrude rearward of the side wall with reference to the fitting direction to sandwich a rear portion of the lock arm therebetween; a coupling portion that couples each of the plate-shaped support walls to the rear portion of the lock arm in a width direction of the connector housing ( ) and has a reduced coupling length along the fitting direction due to a slit provided on a front side of the coupling portion ; and an upward protruding portion that protrudes upward transversally to the fitting direction higher than the coupling portion and is formed on each of the plate-shaped support walls ; characterized in that the coupling portion integrally couples each of the plate-shaped support walls to the rear portion of the lock arm in the width direction of the connector housing ; and wherein the rear portion of the lock arm is integrally connected to a rear end of the side wall of the connector housing .
An item , which is a bottle or a box having liquid content, solid content, or semi solid content, the item comprising: a metal crimp wrapped around or inside a neck of a body of the item , wherein the metal crimp is coupled with a sensor adapted to sense temperature of the content inside the item and determine a value of the temperature, and wherein the sensor is adapted to sense the temperature of the content through the metal crimp ; and an electrochromic strip coupled with the sensor and adapted to display an indication of the temperature value. a metal crimp wrapped around or inside a neck of a body of the item , wherein the metal crimp is coupled with a sensor adapted to sense temperature of the content inside the item and determine a value of the temperature, and wherein the sensor is adapted to sense the temperature of the content through the metal crimp ; and an electrochromic strip coupled with the sensor and adapted to display an indication of the temperature value.
A method for storing video data in a cloud storage system, comprising: receiving to-be-stored video data (S101); obtaining identification information of a storage object corresponding to the to-be-stored video data (S102); wherein the storage object comprises a plurality of disks; determining the storage object corresponding to the to-be-stored video data, and a first data security level and a second data security level corresponding to the storage object based on the identification information; wherein, the first data security level is higher than the second data security level (S103); for each frame in the to-be-stored video data, determining whether the frame is a key frame (S104); when the frame is the key frame, determining a first erasure code policy based on the first data security level, and storing the frame into the determined storage object based on the first erasure code policy, wherein the first data security level is a number N1 of first original segments and a number M1 of first redundant segments; and when the frame is not the key frame, determining a second erasure code policy based on the second data security level, and storing the frame into the determined storage object based on the second erasure code policy, wherein the second data security level is a number N2 of second original segments and a number M2 of second redundant segments; and wherein the number M1 of first redundant segments is larger than the number M2 of second redundant segments. receiving to-be-stored video data (S101); obtaining identification information of a storage object corresponding to the to-be-stored video data (S102); wherein the storage object comprises a plurality of disks; determining the storage object corresponding to the to-be-stored video data, and a first data security level and a second data security level corresponding to the storage object based on the identification information; wherein, the first data security level is higher than the second data security level (S103); for each frame in the to-be-stored video data, determining whether the frame is a key frame (S104); when the frame is the key frame, determining a first erasure code policy based on the first data security level, and storing the frame into the determined storage object based on the first erasure code policy, wherein the first data security level is a number N1 of first original segments and a number M1 of first redundant segments; and when the frame is not the key frame, determining a second erasure code policy based on the second data security level, and storing the frame into the determined storage object based on the second erasure code policy, wherein the second data security level is a number N2 of second original segments and a number M2 of second redundant segments; and wherein the number M1 of first redundant segments is larger than the number M2 of second redundant segments.
A method for processing a data packet based on parallel protocol stack instances, wherein the parallel protocol stack instances comprise at least a first protocol stack instance and a second protocol stack instance, and the method comprises: performing , by using the first protocol stack instance, lower-layer protocol processing on a data packet that is distributed by a network adapter to the first protocol stack instance; determining a target socket that is needed to perform upper-layer protocol processing on the data packet on which the lower-layer protocol processing has been performed; characterized by determining , according to the target socket, the second protocol stack instance that is associated with the target socket; and performing , by using the target socket and the second protocol stack instance, the upper-layer protocol processing on the data packet on which the lower-layer protocol processing has been performed, wherein the lower-layer protocol processing and the upper-layer protocol processing jointly accomplish complete protocol processing on the data packet. performing , by using the first protocol stack instance, lower-layer protocol processing on a data packet that is distributed by a network adapter to the first protocol stack instance; determining a target socket that is needed to perform upper-layer protocol processing on the data packet on which the lower-layer protocol processing has been performed; characterized by determining , according to the target socket, the second protocol stack instance that is associated with the target socket; and performing , by using the target socket and the second protocol stack instance, the upper-layer protocol processing on the data packet on which the lower-layer protocol processing has been performed, wherein the lower-layer protocol processing and the upper-layer protocol processing jointly accomplish complete protocol processing on the data packet.
Hydromechanical spring-loaded drive having an accumulator module, wherein the spring-loaded drive is provided for activating a high-voltage power switch , and wherein the accumulator module includes: a pressure-tight housing , an accumulator piston that protrudes into the housing and is axially movable in the housing , a closure cover that closes the housing in a pressure-tight manner, at least one connection duct , incorporated in the housing , for conveying a highly pressurized fluid that in the operation of the accumulator module is located between an inner wall of the housing and a head of the accumulator piston to a high-pressure duct of the spring-loaded drive, said high-pressure duct being located outside the housing, characterized in that at least one pressure-relief groove is attached in an encircling manner on the head of the accumulator piston. a pressure-tight housing , an accumulator piston that protrudes into the housing and is axially movable in the housing , a closure cover that closes the housing in a pressure-tight manner, at least one connection duct , incorporated in the housing , for conveying a highly pressurized fluid that in the operation of the accumulator module is located between an inner wall of the housing and a head of the accumulator piston to a high-pressure duct of the spring-loaded drive, said high-pressure duct being located outside the housing, characterized in that at least one pressure-relief groove is attached in an encircling manner on the head of the accumulator piston.
A method for identifying one or more specific microbial species in a sample obtained from a subject, the method comprising: (a) depleting eukaryotic DNA from the sample through selective lysis of eukaryotic cells; (b) lysing one or more microbial cells in the sample, wherein the lysing of one or more microbial cells releases a plurality of microbial genetic materials; (c) isolating the plurality of microbial genetic materials using an anion exchange resin; (d) enzymatically amplifying the plurality of microbial genetic materials; (e) contacting the amplified microbial genetic materials with a DNA Invading Artificial Nucleic Acid (DIANA) comprising a sequence of any one of SEQ ID NOS: 1-37, wherein the DIANA is a gamma-modified PNA probe and (f) detecting binding of the DIANA to the microbial genetic material of its respective single species or group of microbes, wherein the detection of binding indicates the presence of the specific microbial species or group of microbes in the sample. (a) depleting eukaryotic DNA from the sample through selective lysis of eukaryotic cells; (b) lysing one or more microbial cells in the sample, wherein the lysing of one or more microbial cells releases a plurality of microbial genetic materials; (c) isolating the plurality of microbial genetic materials using an anion exchange resin; (d) enzymatically amplifying the plurality of microbial genetic materials; (e) contacting the amplified microbial genetic materials with a DNA Invading Artificial Nucleic Acid (DIANA) comprising a sequence of any one of SEQ ID NOS: 1-37, wherein the DIANA is a gamma-modified PNA probe and (f) detecting binding of the DIANA to the microbial genetic material of its respective single species or group of microbes, wherein the detection of binding indicates the presence of the specific microbial species or group of microbes in the sample.
A surgical anvil assembly for use with a circular stapling instrument, comprising: an anvil center rod ; an anvil head pivotally coupled to the anvil center rod and movable between a first, operative condition and a second, tilted condition; and a ring assembly disposed within a recess of the anvil head and movable within the recess from a proximal position preventing pivotal movement of the anvil head from the first, operative condition, to a distal position permitting pivotal movement of the anvil head to the second, tilted condition, wherein the ring assembly includes: a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material; characterised in that the first cut ring defines a recess therein, wherein the second cut ring is disposed within the recess of the first cut ring. an anvil center rod ; an anvil head pivotally coupled to the anvil center rod and movable between a first, operative condition and a second, tilted condition; and a ring assembly disposed within a recess of the anvil head and movable within the recess from a proximal position preventing pivotal movement of the anvil head from the first, operative condition, to a distal position permitting pivotal movement of the anvil head to the second, tilted condition, wherein the ring assembly includes: a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material; a backup member configured to engage the anvil center rod when the ring assembly is in the proximal position; a first cut ring nested with the backup member and being fabricated from a first material; and a second cut ring fabricated from a second material that is softer than the first material;
A remotely operated vehicle assembly for picking up storage bins from an underlying storage system , comprising a vehicle body displaying a cavity for receiving a storage bin within the storage system , a vehicle lifting device at least indirectly connected to the vehicle body for vertically lifting the storage bin from the underlying storage system into the cavity , driving means connected to the vehicle body allowing remotely controlled movements of the vehicle assembly within the storage system and wireless communication means for providing wireless communication between the vehicle assembly and a remote control unit, a rechargeable main power source supplying electrical power to the driving means characterized in that the vehicle assembly further comprises: vehicle coupling means for releasable coupling the main power source to the vehicle body , wherein said coupling means is configured to allow interchange of the main power source to a stationary charging station after receiving at least one communication signal from the control unit. and wherein the vehicle assembly further comprises an auxiliary power source for supplying electrical power to the driving means . vehicle coupling means for releasable coupling the main power source to the vehicle body , wherein said coupling means is configured to allow interchange of the main power source to a stationary charging station after receiving at least one communication signal from the control unit. and wherein the vehicle assembly further comprises an auxiliary power source for supplying electrical power to the driving means .
A powder coating center for supplying a powder coating installation with coating powder, - which has a powder storage container comprising a powder conveyor (3, 23, G1) for transporting powder out of the powder storage container in the direction of the powder coating installation , - which has a container lid , which covers the powder storage container during the powder conveyance and can be removed at least partly for the purpose of cleaning the powder storage container , - which has a cleaning unit for cleaning the powder storage container and the container lid , which can be moved from a parking position next to the powder storage container into a cleaning position in the powder storage container by means of a manipulator , - which has a controller , by means of which the powder conveyor (3, 23, G1), the cleaning unit , and the manipulator can be controlled. - which has a powder storage container comprising a powder conveyor (3, 23, G1) for transporting powder out of the powder storage container in the direction of the powder coating installation , - which has a container lid , which covers the powder storage container during the powder conveyance and can be removed at least partly for the purpose of cleaning the powder storage container , - which has a cleaning unit for cleaning the powder storage container and the container lid , which can be moved from a parking position next to the powder storage container into a cleaning position in the powder storage container by means of a manipulator , - which has a controller , by means of which the powder conveyor (3, 23, G1), the cleaning unit , and the manipulator can be controlled.
A secondary battery , comprising: a positive electrode ; a negative electrode ; and an electrolyte liquid , wherein the electrolyte liquid includes: a solvent containing water; and a lithium salt, the negative electrode has a negative electrode active material including a carbon material, the carbon material has a peak intensity ratio of a D band to a G band (D/G value) of 0.9 to 1.5 in a Raman spectrum obtained by Raman spectroscopy, the carbon material has a coating formed on a surface thereof, and in an XPS spectrum measured by X-ray photoelectron spectroscopy, when an intensity of a peak appearing near a bond energy of 685 eV and corresponding to a 1s electron orbital of a F atom is defined as P1, and an intensity of a peak appearing near a bond energy of 532 eV and corresponding to a 1s electron orbital of an O atom is defined as P2, the coating has a ratio of the peak intensity P1 to the peak intensity P2 (P1/P2 value) of 0.5 to 3.0. a positive electrode ; a negative electrode ; and an electrolyte liquid , the electrolyte liquid includes: a solvent containing water; and a lithium salt, the negative electrode has a negative electrode active material including a carbon material, the carbon material has a peak intensity ratio of a D band to a G band (D/G value) of 0.9 to 1.5 in a Raman spectrum obtained by Raman spectroscopy, the carbon material has a coating formed on a surface thereof, and in an XPS spectrum measured by X-ray photoelectron spectroscopy, when an intensity of a peak appearing near a bond energy of 685 eV and corresponding to a 1s electron orbital of a F atom is defined as P1, and an intensity of a peak appearing near a bond energy of 532 eV and corresponding to a 1s electron orbital of an O atom is defined as P2, the coating has a ratio of the peak intensity P1 to the peak intensity P2 (P1/P2 value) of 0.5 to 3.0.
Therapeutic fusion protein for use in the treatment or prevention of a blood coagulation disorder comprising (a) a coagulation factor, wherein the coagulation factor is selected from the list consisting of Factor IX, Factor VIII, van Willebrand Factor, Factor V, Factor X, Factor XI, Factor XII, Factor XIII, Factor I, Factor II (Prothrombin), Protein C, Protein S, GAS6, and Protein Z, (b) a half-life enhancing polypeptide, and (c) a peptide linker which joins the coagulation factor and the half-life enhancing polypeptide; wherein the peptide linker is cleavable by proteases involved in coagulation or activated by coagulation enzymes and in that the therapeutic fusion protein has in comparison to the respective therapeutic fusion protein linked by a noncleavable linker having the amino acid sequence GGGGGGV an increased elimination rate of the activated coagulation factor after the peptide linker is proteolytically cleaved in a coagulation-related mode. (a) a coagulation factor, wherein the coagulation factor is selected from the list consisting of Factor IX, Factor VIII, van Willebrand Factor, Factor V, Factor X, Factor XI, Factor XII, Factor XIII, Factor I, Factor II (Prothrombin), Protein C, Protein S, GAS6, and Protein Z, (b) a half-life enhancing polypeptide, and (c) a peptide linker which joins the coagulation factor and the half-life enhancing polypeptide;
A compound represented by the following Chemical Formula 1, or a pharmaceutically acceptable salt thereof: wherein, in Chemical Formula 1, R 1 is C 1-5 alkyl, halogen, or cyano, X is N-R 2 , O, or S, R2 is C 1-5 alkyl, C 1-5 haloalkyl, or C 3-6 cycloalkyl. R 1 is C 1-5 alkyl, halogen, or cyano, X is N-R 2 , O, or S, R2 is C 1-5 alkyl, C 1-5 haloalkyl, or C 3-6 cycloalkyl.