mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sharing use of a physical network adapter amongst multiple virtual network adapters, comprising: receiving information from each of multiple virtual network adapters operating on a single computing device, wherein each of the multiple virtual network adapters is configured to communicate with an air interface via the physical network adapter, the information including attributes associated with latency and/or bandwidth characteristics of multiple applications communicating over the physical network adapter via respective corresponding virtual network adapters of the multiple virtual network adapters; allocating resources, including a radio transmission schedule of the physical network adapter and/or a radio reception schedule of the physical network adapter, based at least in part on the latency and/or bandwidth characteristics of each of the multiple applications; and transmitting data to and/or receiving data from the multiple virtual network adapters according to the allocated radio transmission schedule and/or the radio reception schedule; characterized in that the method further comprises: receiving feedback regarding how efficiently previously allocated resources were utilized; and reallocating resources based on the feedback. receiving information from each of multiple virtual network adapters operating on a single computing device, wherein each of the multiple virtual network adapters is configured to communicate with an air interface via the physical network adapter, the information including attributes associated with latency and/or bandwidth characteristics of multiple applications communicating over the physical network adapter via respective corresponding virtual network adapters of the multiple virtual network adapters; allocating resources, including a radio transmission schedule of the physical network adapter and/or a radio reception schedule of the physical network adapter, based at least in part on the latency and/or bandwidth characteristics of each of the multiple applications; and transmitting data to and/or receiving data from the multiple virtual network adapters according to the allocated radio transmission schedule and/or the radio reception schedule; characterized in that the method further comprises: receiving feedback regarding how efficiently previously allocated resources were utilized; and reallocating resources based on the feedback. receiving feedback regarding how efficiently previously allocated resources were utilized; and reallocating resources based on the feedback.
A method for assembling a fiber optic connector , the fiber optic connector including a ferrule subassembly including a ferrule , a ferrule hub that attaches to the ferrule , a spring holder and a connector spring , the fiber optic connector including a plug body in which the ferrule subassembly mounts, the plug body having a plug end through which the ferrule extends when the ferrule subassembly is mounted within the plug body , the plug body defining a central longitudinal axis, the method comprising: pre-assembling the ferrule subassembly such that the connector spring is pre-compressed in an initial compressed state between the ferrule hub and the spring holder ; coupling the spring holder to the ferrule hub by a connection that allows the ferrule and the ferrule hub to slide axially relative to the spring holder along a limited range of movement defined between first and second axial positions; loading the pre-assembled ferrule subassembly into the plug body and applying a secondary compression force to the connector spring as the pre-assembled ferrule assembly is loaded into the plug body to move the connector spring to a final compressed state; and securing the ferrule subassembly in axial position relative to the plug body to retain the connector spring in the final compressed state. pre-assembling the ferrule subassembly such that the connector spring is pre-compressed in an initial compressed state between the ferrule hub and the spring holder ; coupling the spring holder to the ferrule hub by a connection that allows the ferrule and the ferrule hub to slide axially relative to the spring holder along a limited range of movement defined between first and second axial positions; loading the pre-assembled ferrule subassembly into the plug body and applying a secondary compression force to the connector spring as the pre-assembled ferrule assembly is loaded into the plug body to move the connector spring to a final compressed state; and securing the ferrule subassembly in axial position relative to the plug body to retain the connector spring in the final compressed state.
A bilirubin particle having a size of 1-1,000 nm formed by self-assembling of a composite containing bilirubin and a hydrophilic polymer bound to the bilirubin, wherein the hydrophilic polymer is bound to a carboxyl group of the bilirubin.
An instrument for sealing and/or cutting vessel/tissue comprising: a jaw assembly comprising a first jaw and a second jaw , and configured to provide current to the first jaw and to provide current to the second jaw simultaneously; the jaw assembly having a TiN or TiNAg coating on the jaws at a substantially front portion which is a conductive first portion of the jaw assembly , and a partial diamond like coating, DLC , at a substantially back portion which is an insulated second portion of the jaw assembly ; the instrument being configured with a hollow open substantially central portion for insertion of a ceramic insert , and the ceramic insert being provided at a substantially central position within the partial DLC coating or at a peripheral position of the partial DLC coating , wherein both are at the substantially back portion of the jaw assembly ; the jaws forming a narrow base having lesser surface area at the base to target a located and desired vessel or tissue to be sealed and/or cut at the narrow base . a jaw assembly comprising a first jaw and a second jaw , and configured to provide current to the first jaw and to provide current to the second jaw simultaneously; the jaw assembly having a TiN or TiNAg coating on the jaws at a substantially front portion which is a conductive first portion of the jaw assembly , and a partial diamond like coating, DLC , at a substantially back portion which is an insulated second portion of the jaw assembly ; the instrument being configured with a hollow open substantially central portion for insertion of a ceramic insert , and the ceramic insert being provided at a substantially central position within the partial DLC coating or at a peripheral position of the partial DLC coating , wherein both are at the substantially back portion of the jaw assembly ; the jaws forming a narrow base having lesser surface area at the base to target a located and desired vessel or tissue to be sealed and/or cut at the narrow base .
A system for filling a cushioning pod with a plurality of beads, the system comprising: a bead source configured to hold a plurality of beads; a filling station operatively coupled with the bead source , the filling station comprising: a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system , wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle , the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and a weighing station operatively coupled between the bead source and the filling station , the weighing station being effective to apply a variable rate weighing, wherein the weighing station comprises a vibration generator , characterized in that the vibration generator is configured to selectively generate at least a first vibration level and a second vibration level. a bead source configured to hold a plurality of beads; a filling station operatively coupled with the bead source , the filling station comprising: a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system , wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle , the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and a fluid insertion nozzle to introduce a fluid from a fluid source into a fluid coupling of the system , wherein the fluid coupling is configured to transport the plurality of beads for at least a portion of the operative coupling from the bead source to the cushioning pod; and a bead nozzle , the bead nozzle coupled with the fluid coupling of the system and configured to interface with the cushioning pod to deposit the plurality of beads in the cushioning pod; and
A process for preparing a solid ozone storage material comprising contacting cyclodextrins and/or cyclodextrin derivatives in solid form with a gas comprising ozone, whereby a solid ozone storage material is obtained.
Illumination unit for vehicle headlights comprising a light-emitting diode device , a housing and a mounting circuit board , on which components of an operating circuit for operating the light-emitting diode device are arranged, wherein the housing and the mounting circuit board form an interior, and wherein the mounting circuit board has at least one electrically conductive inner layer connected to an earth reference potential of the operating circuit, characterized in that - the mounting circuit board has on its surface at least one electrical contact surface which is contacted with the at least one electrically conductive inner layer , and - the housing has electromagnetic shielding means for electromagnetically shielding the interior, said electromagnetic shielding means being connected to the at least one electrical contact surface . - the mounting circuit board has on its surface at least one electrical contact surface which is contacted with the at least one electrically conductive inner layer , and - the housing has electromagnetic shielding means for electromagnetically shielding the interior, said electromagnetic shielding means being connected to the at least one electrical contact surface .
A method for chemically bonding a phenolic resin with a synthetic fabric material, comprising: contacting a phenolic fatty acid compound with a synthetic fabric material having a functional group reactive to a carboxylic acid group of a fatty acid, to react the carboxylic acid-reactive functional group of the synthetic fabric material with the carboxylic acid group of the phenolic fatty acid compound, to introduce a hydroxy phenyl functional group into the synthetic fabric material; and reacting the hydroxy phenyl functional group contained in the synthetic fabric material with a phenolic resin or a phenolic crosslinker composition capable of forming a phenolic resin, to chemically bond the phenolic resin with the synthetic fabric material. contacting a phenolic fatty acid compound with a synthetic fabric material having a functional group reactive to a carboxylic acid group of a fatty acid, to react the carboxylic acid-reactive functional group of the synthetic fabric material with the carboxylic acid group of the phenolic fatty acid compound, to introduce a hydroxy phenyl functional group into the synthetic fabric material; and reacting the hydroxy phenyl functional group contained in the synthetic fabric material with a phenolic resin or a phenolic crosslinker composition capable of forming a phenolic resin, to chemically bond the phenolic resin with the synthetic fabric material.
An electronic stylus , comprising: a graspable body ; a sensing tip ; and, a tip retention assembly fixed relative to the body and physically removeably retaining the sensing tip, the tip retention assembly comprising: a tip holder that defines a cavity adapted to receive the sensing tip; first and second clamps positioned radially around the tip holder; and, a clamp band positioned around the first and second clamps and biasing the first and second clamps inwardly toward the sensing tip, wherein: the graspable body contains an electronic component ; the tip retention assembly is configured to electrically couple the sensing tip and the electronic component; and the first and second clamps extend through holes in the tip holder into the cavity to contact the sensing tip. a graspable body ; a sensing tip ; and, a tip retention assembly fixed relative to the body and physically removeably retaining the sensing tip, the tip retention assembly comprising: a tip holder that defines a cavity adapted to receive the sensing tip; first and second clamps positioned radially around the tip holder; and, a clamp band positioned around the first and second clamps and biasing the first and second clamps inwardly toward the sensing tip, a tip holder that defines a cavity adapted to receive the sensing tip; first and second clamps positioned radially around the tip holder; and, a clamp band positioned around the first and second clamps and biasing the first and second clamps inwardly toward the sensing tip, wherein: the graspable body contains an electronic component ; the tip retention assembly is configured to electrically couple the sensing tip and the electronic component; and the first and second clamps extend through holes in the tip holder into the cavity to contact the sensing tip. the graspable body contains an electronic component ; the tip retention assembly is configured to electrically couple the sensing tip and the electronic component; and the first and second clamps extend through holes in the tip holder into the cavity to contact the sensing tip.
An intelligent device wearing detection method, wherein an intelligent device comprises a first sensor and a second sensor, and the method comprises: obtaining a measurement value of the first sensor; characterized in that when the measurement value of the first sensor is greater than a first threshold, determining that the intelligent device is in a worn state; when the measurement value of the first sensor is less than a second threshold, determining that the intelligent device is in a not-worn state, wherein the first threshold is greater than the second threshold ; and when the measurement value of the first sensor is greater than and/or equal to the second threshold , and less than and/or equal to the first threshold, turning on the second sensor ; obtaining a measurement value of the second sensor ; and determining , based on the measurement value of the second sensor , that the intelligent device is in a worn state and/or in a not-worn state, wherein the first sensor is a capacitive sensor with low power consumption. obtaining a measurement value of the first sensor; characterized in that when the measurement value of the first sensor is greater than a first threshold, determining that the intelligent device is in a worn state; when the measurement value of the first sensor is less than a second threshold, determining that the intelligent device is in a not-worn state, wherein the first threshold is greater than the second threshold ; and when the measurement value of the first sensor is greater than and/or equal to the second threshold , and less than and/or equal to the first threshold, turning on the second sensor ; obtaining a measurement value of the second sensor ; and determining , based on the measurement value of the second sensor , that the intelligent device is in a worn state and/or in a not-worn state, wherein the first sensor is a capacitive sensor with low power consumption.
A combination for use in a method of treating tumors, the combination comprising (A) an anti-tumor agent, and (B) an anti-tumor effect potentiator, wherein the anti-tumor effect potentiator comprising, as an active ingredient showing enhancing activity for anti-tumor effect of the combined anti-tumor agent (A), a uracil compound represented by the general formula (I) or a pharmaceutically acceptable salt thereof: wherein X represents a C 1-5 alkylene group and one of methylene groups constituting the alkylene group is optionally replaced with an oxygen atom; R 1 represents a hydrogen atom or a C 1-6 alkyl group; R 2 represents a hydrogen atom or a halogen atom; and R 3 represents a C 1-6 alkyl group, a C 2-6 alkenyl group, a C 3-6 cycloalkyl group, a (C 3-6 cycloalkyl) C 1-6 alkyl group, a halogeno-C 1-6 alkyl group or a saturated heterocyclic group. (A) an anti-tumor agent, and (B) an anti-tumor effect potentiator, X represents a C 1-5 alkylene group and one of methylene groups constituting the alkylene group is optionally replaced with an oxygen atom; R 1 represents a hydrogen atom or a C 1-6 alkyl group; R 2 represents a hydrogen atom or a halogen atom; and R 3 represents a C 1-6 alkyl group, a C 2-6 alkenyl group, a C 3-6 cycloalkyl group, a (C 3-6 cycloalkyl) C 1-6 alkyl group, a halogeno-C 1-6 alkyl group or a saturated heterocyclic group.
A method for analysing the expression of one or more biomarker RNA molecules, comprising (A) isolating RNA from circulating tumor cells obtained from a subject, determining the expression of at least one biomarker RNA molecule in the isolated RNA and providing an expression profile based on the results; (B) isolating RNA from extracellular vesicles obtained from the subject, determining the expression of at least one biomarker RNA molecule in the isolated RNA and providing an expression profile based on the results; and (C) using the expression profiles determined in (A) and determined in (B) for a combined analysis of the results. (A) isolating RNA from circulating tumor cells obtained from a subject, determining the expression of at least one biomarker RNA molecule in the isolated RNA and providing an expression profile based on the results; (B) isolating RNA from extracellular vesicles obtained from the subject, determining the expression of at least one biomarker RNA molecule in the isolated RNA and providing an expression profile based on the results; and (C) using the expression profiles determined in (A) and determined in (B) for a combined analysis of the results.
A carbon catalyst, comprising: a conductive carbon material of one or more kinds selected from a group consisting of carbon black, carbon nanotube, carbon nanofiber, graphite, activated carbon, glass-like carbon, carbon fiber, and fullerene; a carbon structure coating a surface of the conductive carbon material; and a transition metal, wherein the carbon structure is formed of a carbon network plane in which, in a distribution of crystallite sizes La of 7.2 nm or less, (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description. a conductive carbon material of one or more kinds selected from a group consisting of carbon black, carbon nanotube, carbon nanofiber, graphite, activated carbon, glass-like carbon, carbon fiber, and fullerene; a carbon structure coating a surface of the conductive carbon material; and a transition metal, wherein the carbon structure is formed of a carbon network plane in which, in a distribution of crystallite sizes La of 7.2 nm or less, (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description. (i) a ratio of crystallite sizes of 2 to 5 nm is 80% or more, and a ratio of crystallite sizes of less than 2 nm is 15% or less, or (ii) a ratio of crystallite sizes of 3 to 5 nm is 50% or more, wherein crystallite sizes La refers to the spread of a carbon network plane in an a-axis direction and wherein the distribution of the crystallite sizes is determined according to the description.
A geodetic instrument for surveying, having: • an optical assembly having at least one optical element , in particular a lens, which defines an optical axis , • a holder for the optical assembly , the holder having a shape which is suitable for at least approximately accommodating the optical assembly , so that in the inserted state there is a gap with a defined width between the assembly and the holder , and • a stabilization component for tolerance compensation and for stable connection of the optical assembly and the holder , having at least one stabilization element which can be compressed in the gap , characterized in that • the stabilization element in an unmounted state has a thickness which is greater than the width of the gap , and • the optical assembly , the holder and the stabilization component are formed in such a way and interact in such a way that in an approximately positioned state, by inserting the optical assembly into the holder , the stabilization element positioned between the optical assembly and the holder is compressed in the gap and is plastically deformed in the gap in such a way that residual elastic forces act radially with respect to the optical sighting axis between the assembly and the holder , and the assembly and the holder are stabilized with respect to one another in the radial direction. • an optical assembly having at least one optical element , in particular a lens, which defines an optical axis , • a holder for the optical assembly , the holder having a shape which is suitable for at least approximately accommodating the optical assembly , so that in the inserted state there is a gap with a defined width between the assembly and the holder , and • a stabilization component for tolerance compensation and for stable connection of the optical assembly and the holder , having at least one stabilization element which can be compressed in the gap , characterized in that • the stabilization element in an unmounted state has a thickness which is greater than the width of the gap , and • the optical assembly , the holder and the stabilization component are formed in such a way and interact in such a way that in an approximately positioned state, by inserting the optical assembly into the holder , the stabilization element positioned between the optical assembly and the holder is compressed in the gap and is plastically deformed in the gap in such a way that residual elastic forces act radially with respect to the optical sighting axis between the assembly and the holder , and the assembly and the holder are stabilized with respect to one another in the radial direction.
Method for creating at least one low-voltage path (10a,b) of a cell contacting system , wherein the cell contacting system contains a main body , in which: - a guide head having a discharge opening for discharging an electrical conductor is provided, - the guide head is guided by machine in a predefinable path relative to the main body , and the conductor is discharged from the guide head and laid on the main body to form the low-voltage path (10a,b). - a guide head having a discharge opening for discharging an electrical conductor is provided, - the guide head is guided by machine in a predefinable path relative to the main body , and the conductor is discharged from the guide head and laid on the main body to form the low-voltage path (10a,b).