mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a first network node, comprising: obtaining (S1310) network slice availability associated with one or more neighboring network nodes, the network slice availability indicating which of a plurality of network slices is supported by each of the one or more neighboring network nodes; managing (S1320) slice connectivity of the wireless device based on the network slice availability of the one or more neighboring network nodes; creating (S1330) a paging area with consistent network slice availability for the wireless device, wherein the paging area comprises one or more of the neighboring network nodes that, based on the network slice availability, support a first network slice of the plurality of network slices; and communicating (S1340) an indication of the paging area that supports the first network slice to the wireless device. obtaining (S1310) network slice availability associated with one or more neighboring network nodes, the network slice availability indicating which of a plurality of network slices is supported by each of the one or more neighboring network nodes; managing (S1320) slice connectivity of the wireless device based on the network slice availability of the one or more neighboring network nodes; creating (S1330) a paging area with consistent network slice availability for the wireless device, wherein the paging area comprises one or more of the neighboring network nodes that, based on the network slice availability, support a first network slice of the plurality of network slices; and communicating (S1340) an indication of the paging area that supports the first network slice to the wireless device.
A pivot pin for a planetary gear sliding bearing, the pivot pin having: - a portion forming a central shank extending around an axial passage of the pivot pin having an axis (X1), and - axially opposed circumferential grooves , which are open laterally and which radially separate two axially opposed lateral end portions of the central shank from two axially opposite lateral cantilevered portions of the pivot pin, characterised in that at least one of the cantilevered lateral portions is hollowed out by at least one recess . - a portion forming a central shank extending around an axial passage of the pivot pin having an axis (X1), and - axially opposed circumferential grooves , which are open laterally and which radially separate two axially opposed lateral end portions of the central shank from two axially opposite lateral cantilevered portions of the pivot pin,
A method of sealing a service penetration in a structure, the method comprising applying a sealant composition around the service penetration on an exterior surface of the structure, wherein the penetration sealant composition comprises: from 5 to 40 wt% of a filler; from 20 to 80 wt% of a silicone polymer; and from 10 to 60 wt% of fire retardant compound.
A composition comprising a P-gp inducer, for use in preventing one or more side effects of a chemotherapeutic and/or reducing the risk of getting one or more side effects of a chemotherapeutic and/or reducing the severity of one or more side effects of a chemotherapeutic and/or increasing the tolerability of a chemotherapeutic and/or removing dose limiting side effects of a chemotherapeutic in a subject, wherein, said chemotherapeutic, in vivo, is transported out of cells by P-gp; wherein the P-gp inducer is selected from the group consisting of rifampicin, carbamazepine and dexamethasone, wherein the chemotherapeutic is selected from the group consisting of taxanes, vinca alkaloids, epothilones, anthracyclines, proteasome inhibitors and topoisomerase inhibitors; wherein the P-gp inducer is prepared to be topically administered to the subject before administering the chemotherapeutic to the subject; and wherein said one or more side effects is selected from the group consisting of CIPN (i.e. chemotherapy-induced peripheral neuropathy), hair loss (alopecia), and nail damage, such as damage to the root of nails. wherein, said chemotherapeutic, in vivo, is transported out of cells by P-gp; wherein the P-gp inducer is selected from the group consisting of rifampicin, carbamazepine and dexamethasone, wherein the chemotherapeutic is selected from the group consisting of taxanes, vinca alkaloids, epothilones, anthracyclines, proteasome inhibitors and topoisomerase inhibitors; wherein the P-gp inducer is prepared to be topically administered to the subject before administering the chemotherapeutic to the subject; and wherein said one or more side effects is selected from the group consisting of CIPN (i.e. chemotherapy-induced peripheral neuropathy), hair loss (alopecia), and nail damage, such as damage to the root of nails.
A continuous casting method for continuously casting an ingot made of titanium or a titanium alloy by injecting molten metal having titanium or a titanium alloy melted therein into a bottomless mold , where the molten metal surface is heated by a centrically arranged plasma torch , and withdrawing the molten metal downward while being solidified, wherein, by controlling temperature T s of a surface portion of the ingot in a contact region between the mold and the ingot , and/or a passing heat flux q from the surface portion of the ingot to the mold in the contact region , thickness D of a solidified shell formed by solidifying the molten metal in the contact region is brought into a range of 0.4mm < D < 4mm, when the following (in)equations are satisfied: D = λ S T M − T S 1 / h + L m / λ m / T S − T W , D = λ S T M − T W / q − λ S 1 / h + L m / λ m , T S = 1 / h + L m / λ m q + T W , 800°C < T S < 1250°C, 5MW/m 2 < q < 7.5MW/m 2 , and wherein a melting point of pure titanium is represented as T M , a temperature of cooling water circulating inside of the mold is represented as T W , a thickness of the mold is represented as L m , a thermal conductivity of the solidified shell is represented as λ S , a thermal conductivity between the mold and the ingot at the contact region is represented as h, and the thermal conductivity of the mold is represented as λ m . 800°C < T S < 1250°C, 5MW/m 2 < q < 7.5MW/m 2 , and wherein a melting point of pure titanium is represented as T M , a temperature of cooling water circulating inside of the mold is represented as T W , a thickness of the mold is represented as L m , a thermal conductivity of the solidified shell is represented as λ S , a thermal conductivity between the mold and the ingot at the contact region is represented as h, and the thermal conductivity of the mold is represented as λ m .
A recombinant virulence attenuated Gram-negative bacterial strain selected from the group consisting of the genera Yersinia, Escherichia, Salmonella, and Pseudomonas, which comprises a nucleotide molecule comprising a nucleotide sequence encoding a heterologous protein fused in frame to the 3'end of a nucleotide sequence encoding a delivery signal from a bacterial effector protein, wherein the delivery signal from a bacterial effector protein is a bacterial T3SS effector protein of the Gram-negative bacterial strain comprising a bacterial T3SS effector protein or a N-terminal fragment thereof comprising a chaperone binding site, wherein the nucleotide sequence encoding the delivery signal from a bacterial effector protein is operably linked to a promoter, and wherein the heterologous protein is a protein involved in induction or regulation of a type I IFN response selected from the group consisting of the RIG-I-like receptor (RLR) family, other CARD domain containing proteins involved in antiviral signaling and type I IFN induction, and cyclic dinucleotide generating enzymes such as cyclic-di-AMP, cyclic-di-GMP and cyclic-di-GAMP cyclases selected from the group consisting of WspR, DncV, DisA and DisA-like, CdaA, CdaS and cGAS, leading to stimulation of STING.
A sole structure for an article of footwear , comprising: a first footwear component including a ground-facing surface , wherein a forefoot portion of the ground-facing surface includes: (a) an arched medial surface arching downward from a medial side edge of the sole structure toward a central region of the first footwear component , and (b) an arched lateral surface arching downward from a lateral side edge of the sole structure toward the central region of the first footwear component , wherein the first footwear component includes one of a first track or a first channel ; and a second footwear component including an upper-facing surface , wherein a forefoot portion of the upper-facing surface includes: (a) an arched medial surface arching downward from a medial side edge of the second footwear component toward a central region of the second footwear component and facing the arched medial surface of the first footwear component , and (b) an arched lateral surface arching downward from a lateral side edge of the second footwear component toward the central region of the second footwear component and facing the arched lateral surface of the first footwear component , wherein the second footwear component includes the other of the first track or the first channel (500T, 1810C, +1810X, 2000C), wherein the first track is engaged with the first channel, and wherein the first footwear component is movably engaged with the second footwear component by movement of the first channel with respect to the first track. a first footwear component including a ground-facing surface , wherein a forefoot portion of the ground-facing surface includes: (a) an arched medial surface arching downward from a medial side edge of the sole structure toward a central region of the first footwear component , and (b) an arched lateral surface arching downward from a lateral side edge of the sole structure toward the central region of the first footwear component , wherein the first footwear component includes one of a first track or a first channel ; and a second footwear component including an upper-facing surface , wherein a forefoot portion of the upper-facing surface includes: (a) an arched medial surface arching downward from a medial side edge of the second footwear component toward a central region of the second footwear component and facing the arched medial surface of the first footwear component , and (b) an arched lateral surface arching downward from a lateral side edge of the second footwear component toward the central region of the second footwear component and facing the arched lateral surface of the first footwear component , wherein the second footwear component includes the other of the first track or the first channel (500T, 1810C, +1810X, 2000C), wherein the first track is engaged with the first channel, and wherein the first footwear component is movably engaged with the second footwear component by movement of the first channel with respect to the first track.
A fluidic die comprising: a substrate having a thin flexible region opposite a fluid supply passage within the substrate ; a nozzle supported by the substrate proximate the flexible region ; wherein the nozzle comprises a firing chamber , an orifice and a fluid ejector within the chamber to displace fluid through the orifice and a strain sensor on the flexible region of the substrate , the strain sensor to sense strain during flexing of the flexible region to sense fluid back pressure changes. a substrate having a thin flexible region opposite a fluid supply passage within the substrate ; a nozzle supported by the substrate proximate the flexible region ; wherein the nozzle comprises a firing chamber , an orifice and a fluid ejector within the chamber to displace fluid through the orifice and a strain sensor on the flexible region of the substrate , the strain sensor to sense strain during flexing of the flexible region to sense fluid back pressure changes.
A method for treating carbon-containing waste that may comprise mineral fillers and/or potential contaminants, comprising: - preparing a molten glass bath at a temperature between 1100°C and 1600°C; - loading the waste to be treated into said molten glass bath ; - injecting a supporter of combustion and optionally a fuel under pressure into said molten glass bath by means of at least one lance , one end of which is immersed in said bath, said supporter of combustion being introduced in a molar amount less than the molar amount of the carbon-containing compounds, thus causing combustion of said waste and generation of hot synthesis gases; characterized in that it further comprises: - implementing heat exchange between a heat-transfer fluid and the hot synthesis gases in conditions allowing simultaneous recovery of at least part of their heat energy and at least part of the heat energy released by their combustion, air being injected sequentially into said gases during said heat exchange to cause self-ignition of the mixture of said gases and air, each injection increasing the degree of combustion, said air being injected in an amount such that the temperature generated by self-ignition remains below 1050°C in order to limit the formation of nitrogen oxides. - preparing a molten glass bath at a temperature between 1100°C and 1600°C; - loading the waste to be treated into said molten glass bath ; - injecting a supporter of combustion and optionally a fuel under pressure into said molten glass bath by means of at least one lance , one end of which is immersed in said bath, said supporter of combustion being introduced in a molar amount less than the molar amount of the carbon-containing compounds, thus causing combustion of said waste and generation of hot synthesis gases; characterized in that it further comprises: - implementing heat exchange between a heat-transfer fluid and the hot synthesis gases in conditions allowing simultaneous recovery of at least part of their heat energy and at least part of the heat energy released by their combustion, air being injected sequentially into said gases during said heat exchange to cause self-ignition of the mixture of said gases and air, each injection increasing the degree of combustion, said air being injected in an amount such that the temperature generated by self-ignition remains below 1050°C in order to limit the formation of nitrogen oxides.
A method of monitoring a vehicle including the steps of: a) determining that a mobile device is near the vehicle ; b) determining a location of the mobile device from a GPS receiver of the mobile device or using cell tower triangulation; c) determining locations of the vehicle based upon said step a) and step b); d) accumulating vehicle speed information and the locations of the vehicle with the mobile device , including processing the data to generate summaries, statistics and/or analysis of the vehicle speed information and the locations of the vehicle with the mobile device ; and e) sending the vehicle speed information and the locations of the vehicle to a server with the mobile device , including sending the summaries, statistics and/or analysis to the server with the mobile device . a) determining that a mobile device is near the vehicle ; b) determining a location of the mobile device from a GPS receiver of the mobile device or using cell tower triangulation; c) determining locations of the vehicle based upon said step a) and step b); d) accumulating vehicle speed information and the locations of the vehicle with the mobile device , including processing the data to generate summaries, statistics and/or analysis of the vehicle speed information and the locations of the vehicle with the mobile device ; and e) sending the vehicle speed information and the locations of the vehicle to a server with the mobile device , including sending the summaries, statistics and/or analysis to the server with the mobile device .
A method of operating a virtual agent running on a device , comprising: obtaining an interaction context, the interaction context including at least one of a communication context, target information, situation information and people information; determining an agent state, based on the obtained interaction context, indicating an activity the virtual agent is currently involved in, wherein the activity is a current behavior that the virtual agent is simulating or performing; updating an emotion and a mood of the virtual agent based on the obtained interaction context, the determined agent state and a personality of the virtual agent; wherein the emotion includes one or more emotion parameters and wherein the mood is based on a moving average of the one or more emotion parameters over a predetermined period of time; selecting one or more behaviors based on the obtained interaction context and the updated emotion and the mood of the virtual agent; rendering the selected one or more behaviors by adjusting an appearance of the virtual agent and/or generating an audio associated with the selected one or more behaviors. obtaining an interaction context, the interaction context including at least one of a communication context, target information, situation information and people information; determining an agent state, based on the obtained interaction context, indicating an activity the virtual agent is currently involved in, wherein the activity is a current behavior that the virtual agent is simulating or performing; updating an emotion and a mood of the virtual agent based on the obtained interaction context, the determined agent state and a personality of the virtual agent; wherein the emotion includes one or more emotion parameters and wherein the mood is based on a moving average of the one or more emotion parameters over a predetermined period of time; selecting one or more behaviors based on the obtained interaction context and the updated emotion and the mood of the virtual agent; rendering the selected one or more behaviors by adjusting an appearance of the virtual agent and/or generating an audio associated with the selected one or more behaviors.
Pharmaceutical preparation comprising pepstatin and/or one of its physiologically acceptable salts, solvates and stereoisomers, including mixtures thereof in all ratios, and further excipients and/or adjuvants, for use as medicament in the treatment and/or prophylaxis of physiological and/or pathophysiological conditions, selected from the group consisting of osteoarthritis, traumatic cartilage injuries, arthritis, pain, allodynia or hyperalgesia, where the pharmaceutical preparation is administered intra-articularly as follows: a) weekly to yearly, b) fortnightly to half-yearly or c) monthly to quarter-yearly. a) weekly to yearly, b) fortnightly to half-yearly or c) monthly to quarter-yearly.
An apparatus, comprising: a memory unit; and at least one processor coupled to the memory unit, in which the at least one processor is configured to: determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and characterized in that the at least one processor is configured to: map, at or after the second time, the future path of travel to a first reference frame, wherein the first reference frame is an image derived from the captured image; determine, using a machine learning model, a predicted path of travel of the vehicle from the first time to the second time given the captured image; store the future path of travel and the predicted path of travel for training the machine learning model; and train the machine learning model based on the stored future path of travel and the stored predicted path of travel. a memory unit; and at least one processor coupled to the memory unit, in which the at least one processor is configured to: determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and determine a future path of travel of a vehicle from a first time to a second time, wherein the second time is later than the first time; receive a captured image, wherein the captured image is captured by a camera at the first time, and wherein the camera is mounted to the vehicle; and map, at or after the second time, the future path of travel to a first reference frame, wherein the first reference frame is an image derived from the captured image; determine, using a machine learning model, a predicted path of travel of the vehicle from the first time to the second time given the captured image; store the future path of travel and the predicted path of travel for training the machine learning model; and
A conduit structure for molten glass, comprising a conduit and a backup disposed around the conduit; the conduit being a hollow pipe made of fused cast refractories disposed in longitudinal and circumferential directions thereof; the backup comprising a refractory layer outside the conduit, and a thermal insulating material layer disposed outside the refractory layer; the refractory layer including a refractory brick layer made of refractory bricks disposed along the longitudinal and circumferential directions of the conduit, and a monolithic refractory layer formed by placing a monolithic refractory containing from 30 to 100% of Al 2 O 3 and from 0 to 70% of SiO 2 in percent by mass on an oxide basis and sintering the monolithic refractory; the thermal insulating material layer containing a solid thermal insulating material layer made of solid thermal insulating materials disposed along the longitudinal and circumferential directions of the conduit; the fused cast refractories constituting the conduit, the monolithic refractory forming the monolithic refractory layer and the refractory bricks constituting the refractory brick layer are selected such that the thermal insulating material layer contains a portion that has a temperature equal to the flow point of the molten glass when the molten glass passes through the conduit, wherein the flow point of glass is a temperature at which a glass viscosity η satisfies the formula of logη (0.1 Pa·s)=5. the conduit being a hollow pipe made of fused cast refractories disposed in longitudinal and circumferential directions thereof; the backup comprising a refractory layer outside the conduit, and a thermal insulating material layer disposed outside the refractory layer; the refractory layer including a refractory brick layer made of refractory bricks disposed along the longitudinal and circumferential directions of the conduit, and a monolithic refractory layer formed by placing a monolithic refractory containing from 30 to 100% of Al 2 O 3 and from 0 to 70% of SiO 2 in percent by mass on an oxide basis and sintering the monolithic refractory; the thermal insulating material layer containing a solid thermal insulating material layer made of solid thermal insulating materials disposed along the longitudinal and circumferential directions of the conduit; the fused cast refractories constituting the conduit, the monolithic refractory forming the monolithic refractory layer and the refractory bricks constituting the refractory brick layer are selected such that the thermal insulating material layer contains a portion that has a temperature equal to the flow point of the molten glass when the molten glass passes through the conduit, wherein the flow point of glass is a temperature at which a glass viscosity η satisfies the formula of logη (0.1 Pa·s)=5.