mhurhangee/patent-ind-claim-en huggingface dataset:
A steel wire comprising, as a chemical composition, by mass%, C: 0.70% to 1.20%, Si: 0.15% to 0.60%, Mn: 0.10% to 1.00%, N: 0.0010% to 0.0050%, Al: 0% to 0.010%, Ti: 0% to 0.10%, Cr: 0% to 0.50%, Co: 0% to 0.50%, V: 0% to 0.50%, Cu: 0% to 0.20%, Nb: 0% to 0.100%, Mo: 0% to 0.20%, W: 0% to 0.200%, B: 0% to 0.0030%, REM: 0% to 0.0050%, Ca: 0% to 0.0050%, Mg: 0% to 0.0050%, Zr: 0% to 0.0100%, and a remainder including Fe and impurities, wherein a wire diameter R of the steel wire is 1.0 mm to 3.5 mm, a soft portion is formed along an outer circumference of the steel wire, a Vickers hardness of the soft portion is lower than that of the steel wire at a depth of 1/4 of the wire diameter R by a Hv 30 or higher, a thickness of the soft portion is 5 μm to 0.1×R mm, a metallographic structure of the steel wire other than the soft portion contains 95% to 100% of pearlite by area%, an average lamellar spacing of the pearlite in a region from a surface of the steel wire to a depth of 5 μm is less than that of the pearlite at the center of the steel wire, a difference between the average lamellar spacing of the pearlite in the region from the surface of the steel wire to the depth of 5 μm and the average lamellar spacing of the pearlite at the center of the steel wire is 3 nm to 60 nm, and a tensile strength is 1100 MPa or higher. C: 0.70% to 1.20%, Si: 0.15% to 0.60%, Mn: 0.10% to 1.00%, N: 0.0010% to 0.0050%, Al: 0% to 0.010%, Ti: 0% to 0.10%, Cr: 0% to 0.50%, Co: 0% to 0.50%, V: 0% to 0.50%, Cu: 0% to 0.20%, Nb: 0% to 0.100%, Mo: 0% to 0.20%, W: 0% to 0.200%, B: 0% to 0.0030%, REM: 0% to 0.0050%, Ca: 0% to 0.0050%, Mg: 0% to 0.0050%, Zr: 0% to 0.0100%, and a remainder including Fe and impurities, wherein a wire diameter R of the steel wire is 1.0 mm to 3.5 mm, a soft portion is formed along an outer circumference of the steel wire, a Vickers hardness of the soft portion is lower than that of the steel wire at a depth of 1/4 of the wire diameter R by a Hv 30 or higher, a thickness of the soft portion is 5 μm to 0.1×R mm, a metallographic structure of the steel wire other than the soft portion contains 95% to 100% of pearlite by area%, an average lamellar spacing of the pearlite in a region from a surface of the steel wire to a depth of 5 μm is less than that of the pearlite at the center of the steel wire, a difference between the average lamellar spacing of the pearlite in the region from the surface of the steel wire to the depth of 5 μm and the average lamellar spacing of the pearlite at the center of the steel wire is 3 nm to 60 nm, and a tensile strength is 1100 MPa or higher.
A method for authentication information transmission, performed by a computing device, characterized by the method comprising: receiving , by a key management client which is defined in a hardware abstract layer of the computing device and is a system service provided in an operating system of the computing device, through a preset hardware abstract layer interface, authentication information transmitted by an application client; transmitting , by the key management client, the authentication information to a key management server which is defined in the hardware abstract layer and is provided in a trusted execution environment in the computing device, through a link path established in the hardware abstract layer, so that the key management server transmits the authentication information to a trusted application in the trusted execution environment; obtaining , by the key management client, authentication information signed by the trusted application and forwarded by the key management server; and transmitting , by the key management client through the preset hardware abstract layer interface, the signed authentication information to an application server corresponding to the application client, so that the application server performs a validity check on the authentication information. receiving , by a key management client which is defined in a hardware abstract layer of the computing device and is a system service provided in an operating system of the computing device, through a preset hardware abstract layer interface, authentication information transmitted by an application client; transmitting , by the key management client, the authentication information to a key management server which is defined in the hardware abstract layer and is provided in a trusted execution environment in the computing device, through a link path established in the hardware abstract layer, so that the key management server transmits the authentication information to a trusted application in the trusted execution environment; obtaining , by the key management client, authentication information signed by the trusted application and forwarded by the key management server; and transmitting , by the key management client through the preset hardware abstract layer interface, the signed authentication information to an application server corresponding to the application client, so that the application server performs a validity check on the authentication information.
An electronic device assembly comprising: an electronic device ; a heat sink coupled to the electronic device to dissipate the heat produced by the electronic device; a heat spreader coupled between the electronic device and the heat sink to transfer heat from the electronic device to the heat sink; and wherein a disordered carbon coating disposed between the electronic device and the heat spreader , wherein the disordered carbon coating is disposed on at least one of the electronic device or the heat spreader, and includes a diamond like carbon (DLC) coating which has an SP3 content equal to or higher than 95%. an electronic device ; a heat sink coupled to the electronic device to dissipate the heat produced by the electronic device; a heat spreader coupled between the electronic device and the heat sink to transfer heat from the electronic device to the heat sink; and wherein a disordered carbon coating disposed between the electronic device and the heat spreader , wherein the disordered carbon coating is disposed on at least one of the electronic device or the heat spreader, and includes a diamond like carbon (DLC) coating which has an SP3 content equal to or higher than 95%.
A method for handling primary containers for pharmaceutical use transported along an automatic treatment line operating in a controlled environment from a contamination point of view and comprising at least one treatment station for treating the primary containers , characterised in that it comprises the following steps: - introducing into said line a secondary container equipped with rows of positioning seats housing said primary containers separately from one another; - extracting the primary containers in succession keeping the primary containers separate from one another, wherein a whole row of primary containers at a time or part of a row of primary containers at a time or one primary container at a time are extracted in succession; - transferring the extracted primary containers to said treatment station in succession one at a time, and - performing said treatment step, - wherein the method comprises a step of overturning the secondary container comprised between the introduction and the extraction step of the primary containers . - introducing into said line a secondary container equipped with rows of positioning seats housing said primary containers separately from one another; - extracting the primary containers in succession keeping the primary containers separate from one another, wherein a whole row of primary containers at a time or part of a row of primary containers at a time or one primary container at a time are extracted in succession; - transferring the extracted primary containers to said treatment station in succession one at a time, and - performing said treatment step, - wherein the method comprises a step of overturning the secondary container comprised between the introduction and the extraction step of the primary containers .
An information processing method, wherein the information processing method is used in a physical machine ; a peripheral component interconnect express, PCIe, device is disposed on the physical machine, and at least one virtual machine, VM, comprising a first virtual machine, VM, a physical function, PF, driver configured to manage the PCIE device, and a virtual machine manager, VMM, run in the physical machine and managing the at least one virtual machine; and the method comprises: receiving , by the PCIE device in a live migration process of the first VM, a packet sent to the first VM; determining , by the PCIE device based on the packet, a direct memory access DMA address corresponding to the first VM; transferring , by the PCIE device, the DMA address to the PF driver; generating , by the PF driver, a dirty bit used to indicate the DMA address; and writing , by the PF driver, the dirty bit into a dirty bitmap, so that the VMM obtains the dirty bitmap, wherein the dirty bitmap is used to store an address of data that needs to be migrated in the live migration process of the first VM. receiving , by the PCIE device in a live migration process of the first VM, a packet sent to the first VM; determining , by the PCIE device based on the packet, a direct memory access DMA address corresponding to the first VM; transferring , by the PCIE device, the DMA address to the PF driver; generating , by the PF driver, a dirty bit used to indicate the DMA address; and writing , by the PF driver, the dirty bit into a dirty bitmap, so that the VMM obtains the dirty bitmap, wherein the dirty bitmap is used to store an address of data that needs to be migrated in the live migration process of the first VM.
A method of transmitting a physical uplink control channel, PUCCH, the method being performed by a user equipment, UE , in a wireless communication system, the method comprising: receiving information related to an index of a PUCCH resource set for the PUCCH and to a number of resource blocks, RBs, of a PUCCH resource used for a transmission of the PUCCH; and transmitting the PUCCH through at least one RB corresponding to the number of RBs of the PUCCH resource based on a first RB offset, wherein a second RB offset of the PUCCH resource set is obtained based on the index of the PUCCH resource set, and wherein the first RB offset is obtained by multiplying the number of RBs by the second RB offset. receiving information related to an index of a PUCCH resource set for the PUCCH and to a number of resource blocks, RBs, of a PUCCH resource used for a transmission of the PUCCH; and transmitting the PUCCH through at least one RB corresponding to the number of RBs of the PUCCH resource based on a first RB offset, wherein a second RB offset of the PUCCH resource set is obtained based on the index of the PUCCH resource set, and wherein the first RB offset is obtained by multiplying the number of RBs by the second RB offset.
A method of decoding video data comprising: receiving a bitstream that is constrained such that escape values used in a palette mode for decoding the video data are no greater than a maximum value, wherein the bitstream includes information for determining at least one escape value representing a sample in a block of the video data to be decoded; receiving a component bitdepth n, wherein the maximum value is calculated according to (1 << (n + 1)) - 1; and reconstructing the sample in the block of the video data using the information for determining the at least one escape value. receiving a bitstream that is constrained such that escape values used in a palette mode for decoding the video data are no greater than a maximum value, wherein the bitstream includes information for determining at least one escape value representing a sample in a block of the video data to be decoded; receiving a component bitdepth n, wherein the maximum value is calculated according to (1 << (n + 1)) - 1; and reconstructing the sample in the block of the video data using the information for determining the at least one escape value.
An irregular-shaped cable arrangement having a conductive core with an external insulation layer, wherein the conductive core comprises at least two conductive core segments having different cross-sectional shapes, and the at least two conductive core segments are connected end to end, such that an end of one conductive core segment is connected to an end of another adjacent conductive core segment ; characterized in that, an effective cross-sectional area for an electric conduction inside each conductive core segment has a tolerance range of ±20%.
A block copolymer comprising: at least one aromatic vinyl compound polymer block; and at least one chloroprene polymer block, the block copolymer having a functional group with a structure represented by Chemical Formula or and having a number average molecular weight of 100,000 or more, the chloroprene polymer block having a number average molecular weight of 80,000 or more in total: (in Chemical Formula , R 1 is a substituted or unsubstituted heterocyclyl group). at least one aromatic vinyl compound polymer block; and at least one chloroprene polymer block, the block copolymer having a functional group with a structure represented by Chemical Formula or and having a number average molecular weight of 100,000 or more, the chloroprene polymer block having a number average molecular weight of 80,000 or more in total:
A micro-dosing device with an eccentric screw , comprising a feed stator and a feed rotor , wherein the feed rotor is rotatable relative to the feed stator via a drive , characterized by a torque sensor for detecting the torque effectively applied to the feed rotor or to the feed stator .
A flexible display apparatus comprising: a flexible substrate , and a TFT structure, a display device , a film packaging layer , and a curing material layer laminated successively on the flexible substrate , wherein the TFT structure comprises a polysilicon layer region, the curing material layer comprises a pair of specific regions, a projection of one of the specific regions on the flexible substrate coinciding with a projection of the polysilicon layer region on the flexible substrate , and a projection of the another specific region on the flexible substrate coinciding with a projection of the display device on the flexible substrate ; the curing material layer is patterned, and each of the specific regions of the curing material layer has a thickness greater than a thickness of other regions of the curing material layer other than the specific region, wherein the specific regions of the curing material layer corresponding to the polysilicon region and the display device have a thickness twice of a thickness of other regions of the curing material layer other than the polysilicon region and the display device .
Device for assembling a support ring (SR) within a tyre (T) comprising: - a base ; - a column or pillar rising from said base ; - a support arm mounted on said column ; - a group for gripping and releasing a support ring (SR) which is articulated to said support arm in order to be angularly movable with respect thereto, said grip and release group including two engagement ends of respective portions of said support ring (SR) as well as means for approaching and moving apart said engagement ends along a direction of elongation-shortening (A-A) between a first engagement position, wherein said group is able to stretch a support ring (SR) along said direction (A-A) so as to impart to said support ring (SR) a substantially elongated or ellipsoidal configuration and a second release position for a support ring (SR). - a base ; - a column or pillar rising from said base ; - a support arm mounted on said column ; - a group for gripping and releasing a support ring (SR) which is articulated to said support arm in order to be angularly movable with respect thereto, said grip and release group including two engagement ends of respective portions of said support ring (SR) as well as means for approaching and moving apart said engagement ends along a direction of elongation-shortening (A-A) between a first engagement position, wherein said group is able to stretch a support ring (SR) along said direction (A-A) so as to impart to said support ring (SR) a substantially elongated or ellipsoidal configuration and a second release position for a support ring (SR).
Direct current output apparatus comprising a direct current source or a device for connecting to a direct current source and a first electrode and a second electrode for connecting to the direct current source, wherein the direct current output apparatus comprises either a means for keeping the current intensity constant when delivering the direct current or the direct current source is a battery, characterised in that the first electrode is formed as a plurality of needles which are electrically conductively connected to one another and comprises 3-12 needles and the second electrode is formed either (i) as a flat electrode or (ii) as needles or a plurality of needles electrically conductively connected to one another.
A power supply circuit comprising: a power input port (PIE1) configured to receive an input power from an external power source apparatus ; a battery module ; a first power circuit coupled to the power input port (PIE1) and the battery module, wherein the first power circuit is configured to convert the input power and accordingly configured to generate a first power and to output the first power to a second power circuit and to the battery module to charge the battery module ; the second power circuit coupled to the first power circuit and the battery module, and is configured to generate an output voltage signal according to the first power, wherein when the input power is not provided by the external power source apparatus, the first power circuit stops providing the first power to the battery module and the second power circuit , and the battery module provides a stored power to serve as the first power to the second power circuit, and a reset circuit , coupled to the power input port (PIE1) and the second power circuit , and configured to generate a reset pulse signal in response to a start of supply of the input power when the external power source apparatus is plugged to the power input port (PIE1), wherein the second power circuit is configured to disable the output voltage signal for a predetermined time period in response to the reset pulse signal received from the reset circuit . a power input port (PIE1) configured to receive an input power from an external power source apparatus ; a battery module ; a first power circuit coupled to the power input port (PIE1) and the battery module, wherein the first power circuit is configured to convert the input power and accordingly configured to generate a first power and to output the first power to a second power circuit and to the battery module to charge the battery module ; the second power circuit coupled to the first power circuit and the battery module, and is configured to generate an output voltage signal according to the first power, wherein when the input power is not provided by the external power source apparatus, the first power circuit stops providing the first power to the battery module and the second power circuit , and the battery module provides a stored power to serve as the first power to the second power circuit, and a reset circuit , coupled to the power input port (PIE1) and the second power circuit , and configured to generate a reset pulse signal in response to a start of supply of the input power when the external power source apparatus is plugged to the power input port (PIE1), wherein the second power circuit is configured to disable the output voltage signal for a predetermined time period in response to the reset pulse signal received from the reset circuit .
An analysis method of content of boron introduced into a cathode active material, the method comprising: (S1) preparing a cathode active material sample into which boron is introduced; (S2) dissolving the cathode active material sample in water to obtain a first liquid layer and a first precipitate and treating the first liquid layer with acid, and then analyzing the resulting solution by inductively coupled plasma optical emission spectroscopy (ICP-OES) to determine the concentration of boron; (S3) dissolving the first precipitate in water to obtain a second liquid layer and a second precipitate and treating the second liquid layer with acid, and then analyzing the resulting solution by ICP-OES to determine the concentration of boron; and (S4) adding acid and hydrogen peroxide to the second precipitate, and then analyzing the resulting solution by ICP-OES to determine the concentration of boron. (S1) preparing a cathode active material sample into which boron is introduced; (S2) dissolving the cathode active material sample in water to obtain a first liquid layer and a first precipitate and treating the first liquid layer with acid, and then analyzing the resulting solution by inductively coupled plasma optical emission spectroscopy (ICP-OES) to determine the concentration of boron; (S3) dissolving the first precipitate in water to obtain a second liquid layer and a second precipitate and treating the second liquid layer with acid, and then analyzing the resulting solution by ICP-OES to determine the concentration of boron; and (S4) adding acid and hydrogen peroxide to the second precipitate, and then analyzing the resulting solution by ICP-OES to determine the concentration of boron.
User configurable eyeglasses comprising: a pair of lenses , each lens comprising at least one tab extending from the lens; an eyeglasses frame defining at least two fittings , each fitting positioned to receive one tab extending from a lens, each fitting sized larger than the tab to be received; and a plurality of elastic cushion connectors , each adapted to be disposed in one of the fittings and to receive one of the tabs extending from one of the lenses, wherein each elastic cushion connector has a relaxed exterior size larger than an interior socket of one of the fittings and an interior opening having a relaxed size smaller than one of the tabs extending from one of the lenses. a pair of lenses , each lens comprising at least one tab extending from the lens; an eyeglasses frame defining at least two fittings , each fitting positioned to receive one tab extending from a lens, each fitting sized larger than the tab to be received; and a plurality of elastic cushion connectors , each adapted to be disposed in one of the fittings and to receive one of the tabs extending from one of the lenses, wherein each elastic cushion connector has a relaxed exterior size larger than an interior socket of one of the fittings and an interior opening having a relaxed size smaller than one of the tabs extending from one of the lenses.
A landing gear arrangement comprising: a first composite layer , the first composite layer having a cylindrical geometry; a metallic ring comprising an inner surface and an outer surface, the metallic ring perimetrically surrounding at least a portion of the first composite layer, the inner surface being in contact with the first composite layer; a metallic connecting tab extending away from the outer surface; and a second composite layer at least partially perimetrically surrounding the metallic ring and the first composite layer, the outer surface being in contact with the second composite layer. a first composite layer , the first composite layer having a cylindrical geometry; a metallic ring comprising an inner surface and an outer surface, the metallic ring perimetrically surrounding at least a portion of the first composite layer, the inner surface being in contact with the first composite layer; a metallic connecting tab extending away from the outer surface; and a second composite layer at least partially perimetrically surrounding the metallic ring and the first composite layer, the outer surface being in contact with the second composite layer.