mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method comprising: receiving , by an Internet Protocol Multimedia Subsystem, IMS, node from a communication device via an untrusted non-3GPP radio access network, a message having a header that includes: a location identifier, ID, a first timestamp indicating a time when the location ID was obtained by the communication device, and a second timestamp indicating a time when the message was transmitted by the communication device; and in response to receiving the message, generating, by the IMS node, an estimate of a current location of the communication device based at least in part on the location ID and a difference between the first timestamp and the second timestamp. receiving , by an Internet Protocol Multimedia Subsystem, IMS, node from a communication device via an untrusted non-3GPP radio access network, a message having a header that includes: a location identifier, ID, a first timestamp indicating a time when the location ID was obtained by the communication device, and a second timestamp indicating a time when the message was transmitted by the communication device; and a location identifier, ID, a first timestamp indicating a time when the location ID was obtained by the communication device, and a second timestamp indicating a time when the message was transmitted by the communication device; and in response to receiving the message, generating, by the IMS node, an estimate of a current location of the communication device based at least in part on the location ID and a difference between the first timestamp and the second timestamp.
Method for dynamically controlling a paving speed (v) of at least one road paver for a paving process (E), wherein a paving speed (v) for the road paver adapted to the determined material delivery rate (P L ) is determined by means of a control system functionally connected to the road paver as a function of a variable material delivery rate (P L ) determined thereby for a material supply chain (L) supplying the road paver with paving material (M), characterized in that, a pre-compaction performance (V L ) of at least one pre-compaction element of a paving screed of the road paver is adapted as a function of the paving speed (v) adapted to the variable material delivery rate (P L ) in order to keep a pre-compaction (V) achieved by means of the pre-compaction element constant.
A phase separation apparatus , comprising: a spiral shaped body having: an inlet portion to receive a mixture of a plurality of phases associated with distinct effective masses; an outlet portion configured towards an end portion of the spiral shaped body ; and a plurality of helical turns stacked between the inlet portion and the outlet portion , wherein at least one portion of one or more helical turns of the plurality of helical turns being twisted to form a twisted portion of said helical turn , a twisted portion of a helical turn of the one or more helical turns having opposite walls of a preceding helical turn turned relative to one another in opposite directions; one or more split outlets configured at one or more walls of the preceding helical turn configured preceding to the twisted portion of the one or more helical turns to withdraw one or more phases of the plurality of phases from the preceding helical turn based on an effective mass of said one or more phases; and characterized by an adjustable splitter movably configured within at least a portion of a cross section of the spiral shaped body to facilitate separate collection of the one or more phases of the mixture for withdrawal. a spiral shaped body having: an inlet portion to receive a mixture of a plurality of phases associated with distinct effective masses; an outlet portion configured towards an end portion of the spiral shaped body ; and a plurality of helical turns stacked between the inlet portion and the outlet portion , wherein at least one portion of one or more helical turns of the plurality of helical turns being twisted to form a twisted portion of said helical turn , a twisted portion of a helical turn of the one or more helical turns having opposite walls of a preceding helical turn turned relative to one another in opposite directions; an inlet portion to receive a mixture of a plurality of phases associated with distinct effective masses; an outlet portion configured towards an end portion of the spiral shaped body ; and a plurality of helical turns stacked between the inlet portion and the outlet portion , wherein at least one portion of one or more helical turns of the plurality of helical turns being twisted to form a twisted portion of said helical turn , a twisted portion of a helical turn of the one or more helical turns having opposite walls of a preceding helical turn turned relative to one another in opposite directions; one or more split outlets configured at one or more walls of the preceding helical turn configured preceding to the twisted portion of the one or more helical turns to withdraw one or more phases of the plurality of phases from the preceding helical turn based on an effective mass of said one or more phases; and characterized by an adjustable splitter movably configured within at least a portion of a cross section of the spiral shaped body to facilitate separate collection of the one or more phases of the mixture for withdrawal.
A method for controlling the nozzle gap of the outlet nozzle for a film web (FB) of a flat film machine , having the following steps: - detecting an actual profile (IP) of the nozzle gap , - ascertaining a thickness profile (DP) of the film web (FB), - comparing the ascertained thickness profile (DP) of the film web (FB) with a default profile (VP), - determining a profile deviation (PA) as the result of the comparison, - carrying out a control intervention in order to change the nozzle gap on the basis of the profile deviation (PA) and the actual profile (IP), characterized in that for the control intervention a stretching ratio of the film web (FB) after the outlet nozzle is additionally taken into account and that the effect of the control intervention together with the actual profile (IP) is stored as a result profile (RP) for use as an actual profile (IP) for a subsequent control intervention. - detecting an actual profile (IP) of the nozzle gap , - ascertaining a thickness profile (DP) of the film web (FB), - comparing the ascertained thickness profile (DP) of the film web (FB) with a default profile (VP), - determining a profile deviation (PA) as the result of the comparison, - carrying out a control intervention in order to change the nozzle gap on the basis of the profile deviation (PA) and the actual profile (IP),
- Formulation of at least one digestive enzyme, the formulation comprising solid lipid particles, the solid lipid particles being: - between 50 μm and 1200 μm in size, - strictly hydrophobic, - free of water, of organic solvent, of surfactant compound and of polymer, and comprising: - at least one digestive enzyme, - a strictly hydrophobic, non-hygroscopic waxy matrix, in which said at least one digestive enzyme: - has homogeneous distribution in each solid lipid particle of the formulation, - is distributed without a distribution gradient towards the interior of the waxy matrix, and - represents between 0.1% and 90% of the mass of the formulation, the formulation having a melting point of between 20°C and 65°C. the solid lipid particles being: - between 50 μm and 1200 μm in size, - strictly hydrophobic, - free of water, of organic solvent, of surfactant compound and of polymer, - between 50 μm and 1200 μm in size, - strictly hydrophobic, - free of water, of organic solvent, of surfactant compound and of polymer, and comprising: - at least one digestive enzyme, - a strictly hydrophobic, non-hygroscopic waxy matrix, - at least one digestive enzyme, - a strictly hydrophobic, non-hygroscopic waxy matrix, in which said at least one digestive enzyme: - has homogeneous distribution in each solid lipid particle of the formulation, - is distributed without a distribution gradient towards the interior of the waxy matrix, and - represents between 0.1% and 90% of the mass of the formulation, - has homogeneous distribution in each solid lipid particle of the formulation, - is distributed without a distribution gradient towards the interior of the waxy matrix, and - represents between 0.1% and 90% of the mass of the formulation, the formulation having a melting point of between 20°C and 65°C.
Flow modulator for a fluid like combustion gas, comprising: a housing , a modulator body and a valve body , wherein the modulator body has a flow channel and an opening providing together a flow passage for the fluid; , wherein the valve body is provided by a foil element , wherein the foil element has an opening for the fluid; wherein the foil element is rotatable relative to the modulator body to modulate the flow of the fluid by adjusting an overlap between the opening of the valve body and the flow passage of the modulator body , wherein the foil element is positioned upstream of the modulator body such that an inlet pressure of the fluid presses the foil element against the modulator body thereby providing a sealing level between the foil element and the modulator body , the flow modulator being characterised by the housing having a first housing part with an inlet opening of the flow modulator for the fluid and a second housing part with an outlet opening of the flow modulator for the fluid; the modulator body being positioned within an interior chamber of the housing , the interior chamber being defined by the first housing part and second housing part , the valve body also being positioned within the interior chamber of the housing . a housing , a modulator body and a valve body , wherein the modulator body has a flow channel and an opening providing together a flow passage for the fluid; , wherein the valve body is provided by a foil element , wherein the foil element has an opening for the fluid; wherein the foil element is rotatable relative to the modulator body to modulate the flow of the fluid by adjusting an overlap between the opening of the valve body and the flow passage of the modulator body , wherein the foil element is positioned upstream of the modulator body such that an inlet pressure of the fluid presses the foil element against the modulator body thereby providing a sealing level between the foil element and the modulator body , the flow modulator being characterised by
A solar vehicle canopy with LED sensor light, comprising: a top ; a horizontal pipe assembly , disposed on two sides of the top ; a leg pipe assembly , clamped with the horizontal pipe assembly to support the top ; an LED light module , comprising at least one LED light and LED sensor module electrically connected with each other; and a solar receiving module , disposed above the top and electrically connected with the LED light module , characterised in that the solar vehicle canopy with LED sensor light further comprises a support assembly , and the top is mixed with the horizontal pipe assembly and the leg pipe assembly through the support assembly , wherein the support assembly comprises a lateral triangle support element and a front triangle support element which are able to interlock with each other, the two sides of the lateral triangle support element respectively fix the top and the leg pipe assembly , the two sides of the front triangle support element respectively fix the horizontal pipe assembly and the leg pipe assembly . a top ; a horizontal pipe assembly , disposed on two sides of the top ; a leg pipe assembly , clamped with the horizontal pipe assembly to support the top ; an LED light module , comprising at least one LED light and LED sensor module electrically connected with each other; and a solar receiving module , disposed above the top and electrically connected with the LED light module , characterised in that the solar vehicle canopy with LED sensor light further comprises a support assembly , and the top is mixed with the horizontal pipe assembly and the leg pipe assembly through the support assembly , wherein the support assembly comprises a lateral triangle support element and a front triangle support element which are able to interlock with each other, the two sides of the lateral triangle support element respectively fix the top and the leg pipe assembly , the two sides of the front triangle support element respectively fix the horizontal pipe assembly and the leg pipe assembly .
Battery support with a battery tray and a reinforcing structure which is disposed on the outside in front of a side wall of the battery tray , wherein the reinforcing structure has an outer profile which is configured to be U-shaped in cross-section with a web and two legs as well as an opening , wherein the opening of the outer profile is directed towards the battery tray and the legs are connected to the battery tray , wherein multiple sleeves are provided, wherein a sleeve extends between the legs and connects openings in the legs , characterised in that the reinforcing structure extends in the longitudinal direction (LR) of the side wall and the outer profile forms with the side wall at least one hollow profile over the most of the length (L) of the reinforcing structure , and/or in that the reinforcing structure extends in the longitudinal direction (LR) of the side wall and the outer profile forms a hollow profile with the side wall at least over most of the length (L) of one side wall .
A method for differentiating liver epithelial stem cells, wherein the method comprises culturing the epithelial stem cells in the presence of a culture medium, the medium comprising a basal medium for animal or human cells, and further comprising a EGF, a Notch inhibitor and a TGF-beta inhibitor.
A method for automatic provisioning of security policies for content streaming control by a network node comprising circuitry and within a Content Delivery Network, CDN, that supports at least one streaming media protocol, the method comprising: obtaining a manifest, the manifest being generated in response to a user requesting a streaming content from the CDN; determining a first security policy associated with the user in accordance with user information extracted from the manifest; updating a set of firewall rules for implementing security policies in accordance with the determined first security policy; and applying the updated set of firewall rules to validate requests from users for streaming content. obtaining a manifest, the manifest being generated in response to a user requesting a streaming content from the CDN; determining a first security policy associated with the user in accordance with user information extracted from the manifest; updating a set of firewall rules for implementing security policies in accordance with the determined first security policy; and applying the updated set of firewall rules to validate requests from users for streaming content.
An apparatus for detecting tissue damage proximate to a point of contact between a medical device and a patient's skin, comprising: the device, a first electrode and a second electrode configured to be attached to the medical device and to measure a level of sub-epidermal moisture (SEM) in tissue proximate to the point of contact, an electronics package individually connected to the first and second electrodes and configured to measure a capacitance between the first and second electrodes, characterized in : one or more pressure management elements comprising one or more inflatable pockets , wherein the medical device is a collar or a cast, wherein the one or more inflatable pockets are flexible membranes that comprise a portion of one or more walls of a sealed compartment that is within or on the surface of the collar or the cast. the device, a first electrode and a second electrode configured to be attached to the medical device and to measure a level of sub-epidermal moisture (SEM) in tissue proximate to the point of contact, an electronics package individually connected to the first and second electrodes and configured to measure a capacitance between the first and second electrodes, characterized in : one or more pressure management elements comprising one or more inflatable pockets , wherein the medical device is a collar or a cast, wherein the one or more inflatable pockets are flexible membranes that comprise a portion of one or more walls of a sealed compartment that is within or on the surface of the collar or the cast. one or more pressure management elements comprising one or more inflatable pockets , wherein the medical device is a collar or a cast, wherein the one or more inflatable pockets are flexible membranes that comprise a portion of one or more walls of a sealed compartment that is within or on the surface of the collar or the cast.
A method for manufacturing a thin-film transistor (TFT), comprising: forming a gate electrode , a gate insulating layer , a Cu 2 O semiconductor active layer , a source electrode and a drain electrode on a substrate , wherein forming the Cu 2 O semiconductor active layer comprises: forming the Cu 2 O semiconductor active layer by electrochemical reaction on a Cu metallic material, which comprising placing the substrate provided with a first pattern of the Cu metallic material in water and electrifying the first pattern, whereby the Cu metallic material is subjected to electrolytic reaction with the water to form the Cu 2 O semiconductor material, and the first pattern is formed into the Cu 2 O semiconductor active layer , characterized in that the method further comprises: before the substrate provided with the first pattern is placed in water, forming the first pattern of the Cu metallic material in an active region by a patterning process, a pattern of the source electrode , a pattern of the drain electrode and the first pattern , which are arranged in a same layer, are formed by a single patterning process. forming the Cu 2 O semiconductor active layer by electrochemical reaction on a Cu metallic material, which comprising placing the substrate provided with a first pattern of the Cu metallic material in water and electrifying the first pattern, whereby the Cu metallic material is subjected to electrolytic reaction with the water to form the Cu 2 O semiconductor material, and the first pattern is formed into the Cu 2 O semiconductor active layer , characterized in that the method further comprises: before the substrate provided with the first pattern is placed in water, forming the first pattern of the Cu metallic material in an active region by a patterning process, a pattern of the source electrode , a pattern of the drain electrode and the first pattern , which are arranged in a same layer, are formed by a single patterning process.
- Method for determining the free volume of an annular space of a flexible pipe , the flexible pipe defining a central internal passage for circulation of a fluid, the annular space containing at least one layer of tensile armor , the method comprising at least one measurement cycle comprising the following steps: - vacuuming the annular space and isolating the annular space ; - measuring a first pressure (P1) in the annular space and the temperature (T) in the annular space after the isolation of the annular space ; characterized by the following steps: - injecting into the annular space a given amount of a measuring gas not coming from the internal central passage and isolating the annular space , the annular space remaining under vacuum after the injection and the isolation; - measuring the given amount of measuring gas injected into the annular space ; - measuring a second pressure (P2) in the annular space after the isolation of the annular space ; - determining the free volume of the annular space on the basis of the first pressure (P1), the second pressure (P2), the temperature (T) and the measurement of the given amount of measuring gas. the method comprising at least one measurement cycle comprising the following steps: - vacuuming the annular space and isolating the annular space ; - measuring a first pressure (P1) in the annular space and the temperature (T) in the annular space after the isolation of the annular space ; - vacuuming the annular space and isolating the annular space ; - measuring a first pressure (P1) in the annular space and the temperature (T) in the annular space after the isolation of the annular space ; characterized by the following steps: - injecting into the annular space a given amount of a measuring gas not coming from the internal central passage and isolating the annular space , the annular space remaining under vacuum after the injection and the isolation; - measuring the given amount of measuring gas injected into the annular space ; - measuring a second pressure (P2) in the annular space after the isolation of the annular space ; - determining the free volume of the annular space on the basis of the first pressure (P1), the second pressure (P2), the temperature (T) and the measurement of the given amount of measuring gas. - injecting into the annular space a given amount of a measuring gas not coming from the internal central passage and isolating the annular space , the annular space remaining under vacuum after the injection and the isolation; - measuring the given amount of measuring gas injected into the annular space ; - measuring a second pressure (P2) in the annular space after the isolation of the annular space ; - determining the free volume of the annular space on the basis of the first pressure (P1), the second pressure (P2), the temperature (T) and the measurement of the given amount of measuring gas.
A probe capable of detecting an EGFR exon 19 polymorphism, the probe consisting of: (P5) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 5, in which the cytosine at the 5' terminus is fluorescence-labeled; (P6) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 4, in which the cytosine at the 5' terminus is fluorescence-labeled; or (P7) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 6, in which the cytosine at the 3' terminus is fluorescence-labeled. (P5) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 5, in which the cytosine at the 5' terminus is fluorescence-labeled; (P6) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 4, in which the cytosine at the 5' terminus is fluorescence-labeled; or (P7) An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 6, in which the cytosine at the 3' terminus is fluorescence-labeled.