mhurhangee/ep-ind-claims huggingface dataset:
A protective system for a structure enclosing a fluid, such as a pipe or tank enclosing a fluid, the protective system comprising: - a structure repair element on at least one portion of an external surface of the structure corresponding to a fraction of the external surface of the structure, - a containment material placed over the structure repair element,; - at least one leak detection sensor arranged so that the containment material covers or encompasses the at least one leak detection sensor; wherein the containment material is configured to collect at least a portion of the fluid in at least one cavity formed in the containment material thereby containing leakage of the fluid outside of the structure in the event of a leak in the structure in the at least one portion wherein leakage of the fluid into the containment material triggers a detection of the leak by the leak detection sensor; - an outer hull enclosing the containment material. - a structure repair element on at least one portion of an external surface of the structure corresponding to a fraction of the external surface of the structure, - a containment material placed over the structure repair element,; - at least one leak detection sensor arranged so that the containment material covers or encompasses the at least one leak detection sensor; - an outer hull enclosing the containment material.
A lubricating composition having a kinematic viscosity at 100°C of 3.6 to 4.8 cSt (mm 2 /s) comprising: (a) an oil of lubricating viscosity having a kinematic viscosity at 100°C of 2.8 to 3.6 cSt (mm 2 /s) and a viscosity index of 104 to 130; (b) 1.2 to 5.0 wt % of at least one borated dispersant, wherein at least one borated dispersant is further functionalised with a sulphur or phosphorus moiety; (c) a calcium sulphonate detergent, wherein the detergent is present in an amount to deliver at least 110 ppm to 700 ppm of calcium; (d) a at least two phosphorus-containing compounds, wherein the phosphorus-containing compounds are present in an amount to deliver 360 to 950 ppm of phosphorus to the lubricating composition, wherein at least 150 ppm of the phosphorus is delivered by a C 4-6 hydrocarbyl phosphite; and (e) 0.1 wt % to 5 wt % of a linear polymer viscosity modifier, comprising a poly(meth)acrylate, having dispersant functionality, wherein the linear polymer has a weight average molecular weight of 5,000 to 25,000. (a) an oil of lubricating viscosity having a kinematic viscosity at 100°C of 2.8 to 3.6 cSt (mm 2 /s) and a viscosity index of 104 to 130; (b) 1.2 to 5.0 wt % of at least one borated dispersant, wherein at least one borated dispersant is further functionalised with a sulphur or phosphorus moiety; (c) a calcium sulphonate detergent, wherein the detergent is present in an amount to deliver at least 110 ppm to 700 ppm of calcium; (d) a at least two phosphorus-containing compounds, wherein the phosphorus-containing compounds are present in an amount to deliver 360 to 950 ppm of phosphorus to the lubricating composition, wherein at least 150 ppm of the phosphorus is delivered by a C 4-6 hydrocarbyl phosphite; and (e) 0.1 wt % to 5 wt % of a linear polymer viscosity modifier, comprising a poly(meth)acrylate, having dispersant functionality, wherein the linear polymer has a weight average molecular weight of 5,000 to 25,000.
An implantable medical device, IMD, configured to communicate with an external device, comprising: control circuitry programmed with an advertising algorithm, wherein the advertising algorithm is configured to: establish a first communication session with the external device, wherein the first communications session enables the exchange of first data between the external device and the IMD; terminate the first communication session; and after terminating the first communication session, cause advertisement data to be repeatedly transmitted to the external device at a first time interval for a first duration, and thereafter to cause the advertisement data to be repeatedly transmitted to the external device at a second time interval, wherein the first time interval is shorter than the second time interval, wherein the advertisement data is configured to allow the external device to establish a second communication session with the IMD. establish a first communication session with the external device, wherein the first communications session enables the exchange of first data between the external device and the IMD; terminate the first communication session; and after terminating the first communication session, cause advertisement data to be repeatedly transmitted to the external device at a first time interval for a first duration, and thereafter to cause the advertisement data to be repeatedly transmitted to the external device at a second time interval, wherein the first time interval is shorter than the second time interval, wherein the advertisement data is configured to allow the external device to establish a second communication session with the IMD.
A method of medical image acquisition and image processing to classify tissue types (WM, GM, CSF) in images of brain tissue, comprising the steps of: a) generating at least two data sets or data volumes by magnetic resonance imaging, wherein a1) an identical volume is at least partly covered, a2) at least one acquisition parameter is varied to obtain different contrast levels relating to different tissue types in the respective at least two data sets or volumes, and a3) the acquisition parameter(s) is/are respectively selected to optimise the contrast between two different substance or tissue types (WM; GM) in one data set and between two different substance or tissue types (CSF; WM) in a different data set; b) calculating a ratio of the two volumes and displaying the ratio in a ratio image to increase the tissue contrast between different tissue types (WM, GM, CSF) in the ratio image; c) determining the thresholding values by modelling sets of values underlying sample tissue type regions (WM, GM, CSF) as Gaussian distributions and calculating the thresholds as the points at which Gaussian distributions of different tissue-type regions intersect; and d) processing the ratio image to classify the tissue types (WM, GM, CSF) by thresholding. a) generating at least two data sets or data volumes by magnetic resonance imaging, wherein a1) an identical volume is at least partly covered, a2) at least one acquisition parameter is varied to obtain different contrast levels relating to different tissue types in the respective at least two data sets or volumes, and a3) the acquisition parameter(s) is/are respectively selected to optimise the contrast between two different substance or tissue types (WM; GM) in one data set and between two different substance or tissue types (CSF; WM) in a different data set; a1) an identical volume is at least partly covered, a2) at least one acquisition parameter is varied to obtain different contrast levels relating to different tissue types in the respective at least two data sets or volumes, and a3) the acquisition parameter(s) is/are respectively selected to optimise the contrast between two different substance or tissue types (WM; GM) in one data set and between two different substance or tissue types (CSF; WM) in a different data set; b) calculating a ratio of the two volumes and displaying the ratio in a ratio image to increase the tissue contrast between different tissue types (WM, GM, CSF) in the ratio image; c) determining the thresholding values by modelling sets of values underlying sample tissue type regions (WM, GM, CSF) as Gaussian distributions and calculating the thresholds as the points at which Gaussian distributions of different tissue-type regions intersect; and d) processing the ratio image to classify the tissue types (WM, GM, CSF) by thresholding.
A computer program product comprising one or more computer-readable media, CRM, comprising instructions to, upon execution of the instructions by one or more processors of a user equipment, UE, cause the UE to: decode a message to obtain a measurement gap, MG, configuration in an evolved universal terrestrial radio access - new radio dual connectivity, EN-DC, operation; and determine, based on the MG configuration, a start of a configured MG that corresponds to one or more long term evolution, LTE, subframes of one or more master- cell-group, MCG, serving cells and one or more new radio, NR, subframes of one or more secondary-cell-group, SCG, serving cells received by the UE; and characterised in that the MG configuration is to indicate that the configured MG starts at x milliseconds advanced to an end of a latest subframe occurring immediately before a subframe of the configured MG among the one or more LTE subframes of the one or more MCG serving cells or among the one or more NR subframes of the one or more SCG serving cells, and the subframe of the configured MG is a subframe of the configured MG received by the UE at last in time among the one or more LTE subframes or among the one or more NR subframes. decode a message to obtain a measurement gap, MG, configuration in an evolved universal terrestrial radio access - new radio dual connectivity, EN-DC, operation; and determine, based on the MG configuration, a start of a configured MG that corresponds to one or more long term evolution, LTE, subframes of one or more master- cell-group, MCG, serving cells and one or more new radio, NR, subframes of one or more secondary-cell-group, SCG, serving cells received by the UE; and characterised in that the MG configuration is to indicate that the configured MG starts at x milliseconds advanced to an end of a latest subframe occurring immediately before a subframe of the configured MG among the one or more LTE subframes of the one or more MCG serving cells or among the one or more NR subframes of the one or more SCG serving cells, and the subframe of the configured MG is a subframe of the configured MG received by the UE at last in time among the one or more LTE subframes or among the one or more NR subframes.
A liquid treatment device, characterized in that the liquid treatment device comprises: a housing having a housing body and a cover body, wherein the housing body is open at one end in a length direction and is close at the other end, the cover body is matched with the one end of the housing body for sealing the one end, and the cover body is provided with an inlet for a liquid to flow into the cover body; a reverse osmosis membrane unit located in an accommodation space enclosed by the housing body and the cover body, the reverse osmosis membrane unit comprising a reverse osmosis membrane for performing reverse osmosis treatment on the liquid, a collector tube collects a purified liquid obtained by the reverse osmosis treatment, and a support rod supporting the reverse osmosis membrane, wherein the reverse osmosis membrane comprises a liquid inlet at one end in the length direction; and a filter arranged in the cover body and located between the liquid inlet and the inlet and is used to filter the liquid entering the cover body via the inlet, the filtered liquid entering the reverse osmosis membrane via the liquid inlet, and a sealing member arranged between an outer circumference of the reverse osmosis membrane and an inner wall of the housing, said liquid treatment device being characterized in that the other end of the housing is provided with a recess for accommodating the liquid collector tube and a sealing ring provided between an outer wall of the collector tube and an inner wall of the housing. a housing having a housing body and a cover body, wherein the housing body is open at one end in a length direction and is close at the other end, the cover body is matched with the one end of the housing body for sealing the one end, and the cover body is provided with an inlet for a liquid to flow into the cover body; a reverse osmosis membrane unit located in an accommodation space enclosed by the housing body and the cover body, the reverse osmosis membrane unit comprising a reverse osmosis membrane for performing reverse osmosis treatment on the liquid, a collector tube collects a purified liquid obtained by the reverse osmosis treatment, and a support rod supporting the reverse osmosis membrane, wherein the reverse osmosis membrane comprises a liquid inlet at one end in the length direction; and a filter arranged in the cover body and located between the liquid inlet and the inlet and is used to filter the liquid entering the cover body via the inlet, the filtered liquid entering the reverse osmosis membrane via the liquid inlet, and a sealing member arranged between an outer circumference of the reverse osmosis membrane and an inner wall of the housing, said liquid treatment device being characterized in that the other end of the housing is provided with a recess for accommodating the liquid collector tube and a sealing ring provided between an outer wall of the collector tube and an inner wall of the housing.
Method for the preparation of a polymer material, comprising the step of preparing a melt of at least a first polymer matrix component and a second polymer matrix component, the first polymer matrix component being material derived from the leaf sheaths of trees of the genus Arecaceae, the second polymer matrix component comprising a thermoplastic polymer, said step of preparing the melt comprises heating the first polymer matrix component and the second polymer matrix component to a temperature of at least 150°C.
A target tracking system configured for use in a directed energy system, the target tracking system comprising: a target identifier configured to receive video signals, to separate a target having track points from a background and to identify one or more track points on the target, wherein the diameters of the one or more identified track points are configured to be smaller than a diameter of the spot of a directed energy beam of the directed energy system on the target to allow the directed energy beam to cover a selected track point to compensate for jitter; a target tracker configured to track one or more track points on the target based on outputs of the target identifier; and a tracking controller configured to generate tracking control signals based on outputs of the target tracker to control a beam transmission unit of the directed energy system for placement of a directed energy beam on a selected one of the track points to radiate a portion of the target. a target identifier configured to receive video signals, to separate a target having track points from a background and to identify one or more track points on the target, wherein the diameters of the one or more identified track points are configured to be smaller than a diameter of the spot of a directed energy beam of the directed energy system on the target to allow the directed energy beam to cover a selected track point to compensate for jitter; a target tracker configured to track one or more track points on the target based on outputs of the target identifier; and a tracking controller configured to generate tracking control signals based on outputs of the target tracker to control a beam transmission unit of the directed energy system for placement of a directed energy beam on a selected one of the track points to radiate a portion of the target.
A method of making a composition, the method comprising: mixing glycine with calcium hydroxide to produce a solution; and adding sodium percarbonate to the solution. mixing glycine with calcium hydroxide to produce a solution; and adding sodium percarbonate to the solution.
A method for making a solid catalyst component for use in a Ziegler-Natta catalyst system, the method including: (a) combining a porous particulate support having a mean particle diameter, determined according to the method disclosed in this specification, in the range of from 15 μm to 200 μm in an inert solvent with a hydrocarbon soluble organomagnesium compound to form a slurry mixture; (b) halogenating the organomagnesium compound; (c) reacting the slurry mixture with a titanium compound, followed by reacting the slurry mixture with an internal donor consisting of at least one diether compound; (d) extracting the solid intermediate with a mixture of a titanium compound and a hydrocarbon solvent to form the solid catalyst component; and (e) recovering the solid catalyst component. (a) combining a porous particulate support having a mean particle diameter, determined according to the method disclosed in this specification, in the range of from 15 μm to 200 μm in an inert solvent with a hydrocarbon soluble organomagnesium compound to form a slurry mixture; (b) halogenating the organomagnesium compound; (c) reacting the slurry mixture with a titanium compound, followed by reacting the slurry mixture with an internal donor consisting of at least one diether compound; (d) extracting the solid intermediate with a mixture of a titanium compound and a hydrocarbon solvent to form the solid catalyst component; and (e) recovering the solid catalyst component.
A method of responding to a Domain Name System, DNS, query, the method comprising: receiving, by a proxy server (130, 230, 530) from a client (120, 220, 520), the DNS query; generating, by the proxy server (130, 230, 530), a modified DNS query, wherein generating the modified DNS query comprises modifying the DNS query to include a request for metadata; transmitting, by the proxy server (130, 230, 530) to an authoritative DNS server (110, 210, 510), the modified DNS query; receiving, by the proxy server (130, 230, 530) from the authoritative DNS server (110, 210, 510), a response (526a, 526b) to the modified DNS query, the response (526a, 526b) comprising the metadata, wherein the response (526a, 526b) to the modified DNS query comprises a program included in the metadata and a plurality of IP addresses; generating, by the proxy server (130, 230, 530), a response to the DNS query, based at least in part on the metadata, wherein generating the response to the DNS query comprises executing the program included in the metadata; and transmitting, by the proxy server (130, 230, 530) to the client (120, 220, 520), the response to the DNS query. receiving, by a proxy server (130, 230, 530) from a client (120, 220, 520), the DNS query; generating, by the proxy server (130, 230, 530), a modified DNS query, wherein generating the modified DNS query comprises modifying the DNS query to include a request for metadata; transmitting, by the proxy server (130, 230, 530) to an authoritative DNS server (110, 210, 510), the modified DNS query; receiving, by the proxy server (130, 230, 530) from the authoritative DNS server (110, 210, 510), a response (526a, 526b) to the modified DNS query, the response (526a, 526b) comprising the metadata, wherein the response (526a, 526b) to the modified DNS query comprises a program included in the metadata and a plurality of IP addresses; generating, by the proxy server (130, 230, 530), a response to the DNS query, based at least in part on the metadata, wherein generating the response to the DNS query comprises executing the program included in the metadata; and transmitting, by the proxy server (130, 230, 530) to the client (120, 220, 520), the response to the DNS query.
An apparatus of separating a flexible substrate from a glass substrate, comprising: a cylinder-shaped roller; and a control unit connected to the roller configured to control a rotation of the roller to separate the flexible substrate from the glass substrate by the roller; wherein the roller comprises a first section, a second section, and a third section, the surface of the third section being provided with at least one depressed area, the third section being movably connected between the first section and the second section, and being rotatable around an axis of roller, the at least one depressed area being configured to allow at least one raised component located on the flexible substrate to be received therein by rotation of the third section during the rotation of the roller to separate the flexible substrate from the glass substrate. a cylinder-shaped roller; and a control unit connected to the roller configured to control a rotation of the roller to separate the flexible substrate from the glass substrate by the roller; wherein the roller comprises a first section, a second section, and a third section, the surface of the third section being provided with at least one depressed area, the third section being movably connected between the first section and the second section, and being rotatable around an axis of roller, the at least one depressed area being configured to allow at least one raised component located on the flexible substrate to be received therein by rotation of the third section during the rotation of the roller to separate the flexible substrate from the glass substrate.
A method for redundancy control in decentralized crowd-based data collection network architecture, where a crowd of user equipment, termed "CIoT reader devices", act as collaborative IoT gateways for connected objects and collect received data from said connected objects and transmit at least some of said data to a backend cloud infrastructure, the method comprising the following steps implemented by a computer circuit of the backend cloud infrastructure: assigning to each connected object an identifier ID and, characterized in that the method further comprises assigning to each connected object a freshness indicator, where the freshness indicator is a label having a value selected from one of "fresh" or "expired", upon receiving data from at least one connected object, setting the freshness indicator to the value of "fresh" for each respective connected object, wherein for each connected object the freshness indicator is configured to change its value to "expired" after expiry of a pre-determined period of time, and sending a message containing a list of ID's of at least one connected object for which the freshness indicator has the value of "fresh", termed "fresh list", said message instructing the CIoT reader devices to exclude data from any connected object whose ID is appearing in the fresh list from being transmitted to the backend cloud infrastructure. assigning to each connected object an identifier ID and, characterized in that the method further comprises assigning to each connected object a freshness indicator, where the freshness indicator is a label having a value selected from one of "fresh" or "expired", upon receiving data from at least one connected object, setting the freshness indicator to the value of "fresh" for each respective connected object, wherein for each connected object the freshness indicator is configured to change its value to "expired" after expiry of a pre-determined period of time, and sending a message containing a list of ID's of at least one connected object for which the freshness indicator has the value of "fresh", termed "fresh list", said message instructing the CIoT reader devices to exclude data from any connected object whose ID is appearing in the fresh list from being transmitted to the backend cloud infrastructure.