mhurhangee/ep-ind-claims huggingface dataset:
A network device configured to operate a network function, NF1, of a first network slice, NSI-2, wherein the network device is configured to establish an end-to-end path from NF1 of NSI-2 to a network function, NF2, of a second network slice, NSI-1, the network device being characterised by: the network device is configured to provide a first interface (126, 128) in NSI-2 in a third network namespace between NF1 and a first communication entity; wherein, NSI-2 defines a first network namespace in NSI-2 and NSI-1 defines a second network namespace, wherein NSI-2 comprises the first communication entity in the first network namespace and wherein NF1 is connected with the first communication entity by a second interface, wherein NSI-1 comprises a second communication entity in the second network namespace and wherein NF2 is connected with the second communication entity by a third interface; the network device is further configured to provide a communication tunnel between NSI-2 and NSI-1, whereby the network device is configured to provide the communication tunnel from a first communication tunnel port of a first communication entity NSI-2 to a second communication tunnel port of a second communication entity; and the network device is configured to provide and/or adjust one or more forwarding rules in NSI-2 and/or one or more forwarding rules in NSI-1. the network device is configured to provide a first interface (126, 128) in NSI-2 in a third network namespace between NF1 and a first communication entity; wherein, NSI-2 defines a first network namespace in NSI-2 and NSI-1 defines a second network namespace, wherein NSI-2 comprises the first communication entity in the first network namespace and wherein NF1 is connected with the first communication entity by a second interface, wherein NSI-1 comprises a second communication entity in the second network namespace and wherein NF2 is connected with the second communication entity by a third interface; the network device is further configured to provide a communication tunnel between NSI-2 and NSI-1, whereby the network device is configured to provide the communication tunnel from a first communication tunnel port of a first communication entity NSI-2 to a second communication tunnel port of a second communication entity; and the network device is configured to provide and/or adjust one or more forwarding rules in NSI-2 and/or one or more forwarding rules in NSI-1.
A non-therapeutic method for administering water soluble physiologically active substances selected from one or more vitamins and/or caffeine, said method comprising intranasally administering to a subject an aqueous composition comprising: • 0.001-25 wt.% of one or more fully dissolved physiologically active substances, including at least 0.001 wt.% of one or more vitamins and/or at least 0.001 wt.% of caffeine, the physiologically active substances having a water solubility in demineralized water of at least 15 mg/mL at 20°C, wherein the aqueous composition does not comprise both niacin and ascorbic acid; • 0.01-10 wt.% nicotinamide; and • at least 60 wt.% water. • 0.001-25 wt.% of one or more fully dissolved physiologically active substances, including at least 0.001 wt.% of one or more vitamins and/or at least 0.001 wt.% of caffeine, the physiologically active substances having a water solubility in demineralized water of at least 15 mg/mL at 20°C, wherein the aqueous composition does not comprise both niacin and ascorbic acid; • 0.01-10 wt.% nicotinamide; and • at least 60 wt.% water.
A processor-implemented method for assessing an electrocardiogram signal quality, the method comprising: determining a mean of the ECG signal using a first low pass filter; removing the mean from the ECG signal to obtain a corrected signal; approximating a Second moment of said corrected signal using a second low pass filter; squaring the Second moment to output a denominator value; approximating a Fourth moment of said corrected signal using a third low pass filter to output a numerator value; determining a Kurtosis calculation of the ECG signal by dividing the numerator value by the denominator value; and determining whether the Kurtosis calculation satisfies a first threshold to continuously assess the ECG signal quality. determining a mean of the ECG signal using a first low pass filter; removing the mean from the ECG signal to obtain a corrected signal; approximating a Second moment of said corrected signal using a second low pass filter; squaring the Second moment to output a denominator value; approximating a Fourth moment of said corrected signal using a third low pass filter to output a numerator value; determining a Kurtosis calculation of the ECG signal by dividing the numerator value by the denominator value; and determining whether the Kurtosis calculation satisfies a first threshold to continuously assess the ECG signal quality.
Compound of general formula la, wherein Z is a linear hydrocarbyl chain selected from alkylene, alkenylene or alkynylene, containing 1 to 20 carbon atoms, preferably 4 to 14 carbon atoms, more preferably 8 to 12 carbon atoms, whereas optionally one or more carbon atom pairs in the hydrocarbyl chain may be replaced by one or more 5-membered or 6-membered aromatic rings or heteroaromatic rings containing the heteroatoms O, S and/or N, preferably phenylenes or pyridylenes or triazoles, and/or one or more carbon atoms in the hydrocarbyl chain may be replaced by one or more heteroatoms selected from O, S, NH; and whereas the hydrocarbyl chain is unsubstituted or substituted by one or more substituents selected independently from the group comprising C1-C4 alkyl; N(H or C1-C4 alkyl) 2, wherein the alkyls are the same or different; phenyl; benzyl; OH; =O; SH; =S; F; Cl; Br; I; C1-C4 alkoxy; C1-C4 acyloxy; C1-C4 mercapto; and each of R1, R2, R3 is independently selected from the group comprising C1-C10 alkyl, C6-C12 aryl, C6-C12-aryl-C1-C2-alkyl, C5-C12 heteroaryl, C3-C8 cycloalkyl, wherein each of R1, R2, R3 can optionally and independently from others be substituted by one or more substituents selected independently from the group comprising C1-C4 alkyl; C1-C4 alkoxy; N(H or C1-C4 alkyl) 2, wherein the alkyls are the same or different; OH; =O; SH; =S; F; Cl; Br; I; C1-C4 mercapto; X - is a pharmaceutically acceptable anion; wherein the crossed double bond in the general formula I indicates that the double bond may have E and/or Z configuration; provided that all of R1, R2 and R3 are not all simultaneously unsubstituted phenyls; and pharmaceutically acceptable salts of the compound of general formula Ia.
A chemisorption based energy storage device comprising: a first chemical reactor containing a first sorbent material and a second chemical reactor containing a second sorbent material, the first and second chemical reactors being in mutual fluid connection such that a refrigerant fluid can flow from the first chemical reactor to the second chemical reactor, and from the second chemical reactor to the first chemical reactor, the first and second chemical reactors being further provided with means for putting heat in to, or taking heat out of, the first and/or the second chemical reactors; a heat exchanger module, the heat exchanger module being configured to select from a plurality of available heat sources, a heat source having the highest temperature; and an expander module selectively connected to the first chemical reactor and the second chemical reactor via the heat exchanger module; wherein the heat source is arranged to heat the refrigerant fluid prior to the refrigerant fluid passing through the expander module, and wherein the heat exchanger is configured to recover a surplus heat from the highest temperature heat source, and the expander module is configured to expand the refrigerant fluid; wherein the means for putting heat in to, or taking heat out of, the first and/or the second chemical reactors provides a flow of refrigerant fluid between the expander module and the first and second chemical reactors, and wherein the expander module is operable to expand the refrigerant fluid to provide a variable work output depending on energy storage requirements. a first chemical reactor containing a first sorbent material and a second chemical reactor containing a second sorbent material, the first and second chemical reactors being in mutual fluid connection such that a refrigerant fluid can flow from the first chemical reactor to the second chemical reactor, and from the second chemical reactor to the first chemical reactor, the first and second chemical reactors being further provided with means for putting heat in to, or taking heat out of, the first and/or the second chemical reactors; a heat exchanger module, the heat exchanger module being configured to select from a plurality of available heat sources, a heat source having the highest temperature; and an expander module selectively connected to the first chemical reactor and the second chemical reactor via the heat exchanger module; wherein the heat source is arranged to heat the refrigerant fluid prior to the refrigerant fluid passing through the expander module, and wherein the heat exchanger is configured to recover a surplus heat from the highest temperature heat source, and the expander module is configured to expand the refrigerant fluid; wherein the means for putting heat in to, or taking heat out of, the first and/or the second chemical reactors provides a flow of refrigerant fluid between the expander module and the first and second chemical reactors, and wherein the expander module is operable to expand the refrigerant fluid to provide a variable work output depending on energy storage requirements.
A microporous film that is a 3 layer microporous film, comprising: an inner layer that includes polypropylene of 20-80 wt% having a melting temperature of 150 °C or higher and a filler of 80-20 wt% having a melting temperature of 140 °C or higher, wherein a gross content of the filler and polypropylene in the inner layer is 60wt% or more, and both surface layers that include polyethylene, wherein at least one layer of the both surface layers includes polyethylene of 70 wt% or more, characterized in that the filler having a melting temperature of 140 °C or higher is selected from silicon dioxide (SiO 2), aluminum dioxide (Al 2 O 3), calcium carbonate (CaCO 3), titanium dioxide (TiO 2), SiS 2, SiPO 4, MgO, ZnO, BaTiO 3 and a mixture thereof and the filler has an average particle size of 0.01 to 5 μm. an inner layer that includes polypropylene of 20-80 wt% having a melting temperature of 150 °C or higher and a filler of 80-20 wt% having a melting temperature of 140 °C or higher, wherein a gross content of the filler and polypropylene in the inner layer is 60wt% or more, and both surface layers that include polyethylene, wherein at least one layer of the both surface layers includes polyethylene of 70 wt% or more, characterized in that the filler having a melting temperature of 140 °C or higher is selected from silicon dioxide (SiO 2), aluminum dioxide (Al 2 O 3), calcium carbonate (CaCO 3), titanium dioxide (TiO 2), SiS 2, SiPO 4, MgO, ZnO, BaTiO 3 and a mixture thereof and the filler has an average particle size of 0.01 to 5 μm.
A method for connecting a single- or multi-layer functional part to a third-party component, wherein the functional part has functional elements (14, 16) protruding on at least one side, wherein a substrate element is designed with closure or adhesion parts as functional elements as a layer of the functional element, characterised in that the functional part is formed at least partially from a material which is at least partially transparent to laser light, and in that a barrier layer is arranged at least partially opaque to laser light such that, after passage of the laser light through the functional part, the laser light inside the barrier layer generates heat by absorption, which is suitable for melting the functional part and/or the third-party component in order to connect them to each other in this way.
A method for modifying single-stranded RNA (ssRNA) at the 3' end, said method comprising contacting the strand with a ssRNA 2'-O-methyltransferase in the presence of a co-factor, under conditions which allow for the transfer by the ssRNA 2'-O-methyltransferase of a part of the co-factor onto the 3' end of the RNA strand to form a modified RNA strand, wherein the ssRNA bears unmethylated 2'-OH group at 3' terminal nucleotide and wherein the part of the co-factor transferred comprises an extended moiety from an S-adenosyl-L-methionine analogue, with an extended sulfonium-bound side chain comprising a reporter group or functional group.
Printed circuit board having a shield connection element comprising a contact part with a central flat soldering section by way of which the contact part is soldered directly onto the printed circuit board in an electrically contact-making manner and having two crimping sections (20, 30) which are adjacent to said soldering section, at least one of which crimping sections is designed for connection to a cable shield of a cable, wherein the soldering section is formed between the first crimping section and the second crimping section.
A method of creasing sheets by using a creasing tool (14, 20, 21) cooperating with a counter element (22, 23), comprising the following steps: - a creasing plate blank is provided with at least one creasing projection by plastically deforming the material of the blank so as to form a creasing plate, - the creasing plate is mounted to a creasing tool (14, 20, 21) by clamping the creasing plate to the cylindrical surface of a creasing cylinder, - the counter element comprises a counter cylinder used for cooperating with the creasing cylinder, wherein - a layer made from a shape memory material is clamped to the counter cylinder and is plastically deformed by means of the creasing plate, by advancing the creasing cylinder and the counter cylinder towards each other so that the creasing projection on creasing plate penetrates into said layer, then, after increasing the distance between said cylinders (21, 23), - sheets to be provided with at least one crease are advanced through a gap between the creasing tool (14, 20, 21) and the counter element (22, 23). - a creasing plate blank is provided with at least one creasing projection by plastically deforming the material of the blank so as to form a creasing plate, - the creasing plate is mounted to a creasing tool (14, 20, 21) by clamping the creasing plate to the cylindrical surface of a creasing cylinder, - the counter element comprises a counter cylinder used for cooperating with the creasing cylinder, wherein - a layer made from a shape memory material is clamped to the counter cylinder and is plastically deformed by means of the creasing plate, by advancing the creasing cylinder and the counter cylinder towards each other so that the creasing projection on creasing plate penetrates into said layer, then, after increasing the distance between said cylinders (21, 23), - sheets to be provided with at least one crease are advanced through a gap between the creasing tool (14, 20, 21) and the counter element (22, 23).
A method for degrading a phenolic resin-containing material, characterised in that the phenolic resin-containing material is subjected to aminolysis with a reagent containing at least one amino group.
A sealing arrangement for a gas turbine engine comprising: an engine static structure; first and second members (42, 88) that fluidly separate cavities (52, 54, 56, 58) from one another; and a seal assembly (46, 48) captured by the engine structure, wherein the seal assembly (46, 48) includes a carrier and a seal (82; 182; 282) that engages the first member, and the second member is captured by the carrier, characterised in that: the seal (82; 182; 282) is secured to the carrier to provide an integrated line replaceable unit. an engine static structure; first and second members (42, 88) that fluidly separate cavities (52, 54, 56, 58) from one another; and a seal assembly (46, 48) captured by the engine structure, wherein the seal assembly (46, 48) includes a carrier and a seal (82; 182; 282) that engages the first member, and the second member is captured by the carrier, the seal (82; 182; 282) is secured to the carrier to provide an integrated line replaceable unit.
Method for producing a component by further forming of a preformed contour of a blank, the blank, which is cut in advance from a strip or a metal sheet at room temperature, being subjected, after further manufacturing steps implemented at ambient temperature, such as e.g. stamping or cutting operations in order to obtain recesses or through-openings, in selected edge regions work-hardened by the stamping or cutting operations, to a first forming at ambient temperature in order to obtain a preformed contour, characterised in that optionally, in fact, the edge regions provided for the forming but at least the edge regions already subjected to the first forming are heated for a duration of at most 10 seconds to a temperature of at least 600°C, and the edge regions are subjected, at any time after this heat treatment, to a second forming or further formings at ambient temperature with respectively preceding heat treatments.
A method for preparing a telechelic polymer of the formulae: or wherein: R 1 and R 2 are each independently, in each -(CR 1 R 2)- unit, hydrogen or alkyl from 1 to 6 carbon atoms; m is an integer from 2 to 20; Z 1 is -F, -Cl, -Br, -I, -At, -CN, -NC, -N 3, -NCO, -OCN, -NCS, or -SCN; R' is a polyisobutyl group of formula wherein R is H or alkyl of 1 to 10 carbons, and n is an integer from 10 to 2000; R" is a polyisobutylene group of formula wherein n is an integer from 10 to 2000; and R 3 is a monofunctional or polyfunctional carbocationic initiator residue of functionality r, wherein r is an integer from 1 to 8; and comprising: a) ionizing a polyolefin in the presence of a Lewis acid or mixture of Lewis acids to form a carbocation-terminated polyolefin; and b) reacting the carbocation-terminated polyolefin from step (a) with an N-substituted pyrrole of formula II: R 1 and R 2 are each independently, in each -(CR 1 R 2)- unit, hydrogen or alkyl from 1 to 6 carbon atoms; m is an integer from 2 to 20; Z 1 is -F, -Cl, -Br, -I, -At, -CN, -NC, -N 3, -NCO, -OCN, -NCS, or -SCN; R' is a polyisobutyl group of formula wherein R is H or alkyl of 1 to 10 carbons, and n is an integer from 10 to 2000; R" is a polyisobutylene group of formula wherein n is an integer from 10 to 2000; and R 3 is a monofunctional or polyfunctional carbocationic initiator residue of functionality r, wherein r is an integer from 1 to 8; and a) ionizing a polyolefin in the presence of a Lewis acid or mixture of Lewis acids to form a carbocation-terminated polyolefin; and b) reacting the carbocation-terminated polyolefin from step (a) with an N-substituted pyrrole of formula II:
A surgical instrument comprising: a first member being engageable with a fastener and including a slot in which a key is disposed; a second member including an expandable portion configured for capturing the fastener; a third member being engageable with the expandable portion to releasably capture the fastener; and an actuator connected with the second member and the third member, the actuator including a threaded inner surface and a threaded coupling member engageable with the threaded inner surface to facilitate axial translation of the second member relative to the third member, wherein the second member includes a sleeve and an engagement surface disposed between the sleeve and the expandable portion, wherein the sleeve includes an inner surface including an opening in which the key is disposed for a keyed connection between the first member and the sleeve, and wherein the first member is keyed with the second member to facilitate translation of the second member relative to the first member. a first member being engageable with a fastener and including a slot in which a key is disposed; a second member including an expandable portion configured for capturing the fastener; a third member being engageable with the expandable portion to releasably capture the fastener; and an actuator connected with the second member and the third member, the actuator including a threaded inner surface and a threaded coupling member engageable with the threaded inner surface to facilitate axial translation of the second member relative to the third member, wherein the second member includes a sleeve and an engagement surface disposed between the sleeve and the expandable portion, wherein the sleeve includes an inner surface including an opening in which the key is disposed for a keyed connection between the first member and the sleeve, and wherein the first member is keyed with the second member to facilitate translation of the second member relative to the first member.
An olefin polymerization process comprising the steps of: a. contacting an antistatic compound with a support in the absence of a transition-metal-based catalyst component to obtain a supported antistatic compound, wherein the antistatic compound is from 10 to 60 %wt per gram of support; b. introducing the supported antistatic compound into a polymerization reactor; and then c. polymerizing an olefin in the polymerization reactor in the presence of a catalyst. a. contacting an antistatic compound with a support in the absence of a transition-metal-based catalyst component to obtain a supported antistatic compound, wherein the antistatic compound is from 10 to 60 %wt per gram of support; b. introducing the supported antistatic compound into a polymerization reactor; and then c. polymerizing an olefin in the polymerization reactor in the presence of a catalyst.