mhurhangee/ep-ind-claims huggingface dataset:
A method of operation for a network-facing provider edge, n-PE, device (32, 33) of a core network, the method comprising: receiving a customer frame from an access network (21, 22), the customer frame having a first Virtual Local Area Network, VLAN, tag of a first predetermined bit length, the first VLAN tag including a first broadcast domain identifier and a first service instance identifier for a connection across the access network (21, 22); mapping the first service instance identifier of the first VLAN tag into a second VLAN tag of a second predetermined bit length greater than the first predetermined bit length, wherein the second VLAN tag designates, for the connection across the core network, both a second broadcast domain identifier and a second service instance identifier; forming a mapped frame from the received customer frame by replacing the first VLAN tag with the second VLAN tag, and encapsulating the customer frame within a provider address header. receiving a customer frame from an access network (21, 22), the customer frame having a first Virtual Local Area Network, VLAN, tag of a first predetermined bit length, the first VLAN tag including a first broadcast domain identifier and a first service instance identifier for a connection across the access network (21, 22); mapping the first service instance identifier of the first VLAN tag into a second VLAN tag of a second predetermined bit length greater than the first predetermined bit length, wherein the second VLAN tag designates, for the connection across the core network, both a second broadcast domain identifier and a second service instance identifier; forming a mapped frame from the received customer frame by replacing the first VLAN tag with the second VLAN tag, and encapsulating the customer frame within a provider address header.
An anode active material comprising: a core comprising: a crystalline carbon-based material having a lattice spacing d 002 of 0.35 nm to 0.40 nm; and titanium-based oxide nanoparticles, and a carbon-based coating layer formed on the core, wherein the carbon-based coating layer comprises amorphous carbon, the crystalline carbon-based material comprises nanoparticles, the content of the titanium-based oxide particles ranges from above 0 wt% to about 10 wt% based on the total weight of the core, and the titanium-based oxide is one or more selected from the group consisting of Li 4 Ti 5 O 12, TiO 2, LiTiO 3, and Li 2 Ti 3 O 7. a core comprising: a crystalline carbon-based material having a lattice spacing d 002 of 0.35 nm to 0.40 nm; and titanium-based oxide nanoparticles, and a carbon-based coating layer formed on the core, wherein the carbon-based coating layer comprises amorphous carbon, the crystalline carbon-based material comprises nanoparticles, the content of the titanium-based oxide particles ranges from above 0 wt% to about 10 wt% based on the total weight of the core, and the titanium-based oxide is one or more selected from the group consisting of Li 4 Ti 5 O 12, TiO 2, LiTiO 3, and Li 2 Ti 3 O 7. a crystalline carbon-based material having a lattice spacing d 002 of 0.35 nm to 0.40 nm; and titanium-based oxide nanoparticles, and a carbon-based coating layer formed on the core, wherein the carbon-based coating layer comprises amorphous carbon, the crystalline carbon-based material comprises nanoparticles, the content of the titanium-based oxide particles ranges from above 0 wt% to about 10 wt% based on the total weight of the core, and the titanium-based oxide is one or more selected from the group consisting of Li 4 Ti 5 O 12, TiO 2, LiTiO 3, and Li 2 Ti 3 O 7. the carbon-based coating layer comprises amorphous carbon, the crystalline carbon-based material comprises nanoparticles, the content of the titanium-based oxide particles ranges from above 0 wt% to about 10 wt% based on the total weight of the core, and the titanium-based oxide is one or more selected from the group consisting of Li 4 Ti 5 O 12, TiO 2, LiTiO 3, and Li 2 Ti 3 O 7.
A machine for dispensing a beverage has a beverage directing guide, an evacuation guide and an actuator, the directing guide being movable from: - a dispensing position for directing by the directing guide a beverage to an area for placing a user-recipient, e.g. a cup or a mug, to collect such dispensed beverage; to - a non-dispensing position for directing by the directing guide waste liquid, such as residual beverage and/or cleaning fluid, to a waste collector; and vice versa, the directing guide being configured to deliver said beverage or said waste liquid into the evacuation guide towards the placing area or towards the waste collector, the directing guide being movable relative to the evacuation guide, characterised in that the evacuation guide is actuated by the actuator to act on the directing guide so as to move the directing guide towards at least one of the dispensing position and the non-dispensing position, optionally the directing guide being associated with a biasing device such as a spring, e.g. a spring blade or spring wire or spiral or helicoidal spring, for urging the directing guide into its dispensing position or into its non-dispensing position, for instance the directing guide being urged selectively into its dispensing position and into its non-dispensing position by such a biasing device that comprises a bistable resilient arrangement. - a dispensing position for directing by the directing guide a beverage to an area for placing a user-recipient, e.g. a cup or a mug, to collect such dispensed beverage; to - a non-dispensing position for directing by the directing guide waste liquid, such as residual beverage and/or cleaning fluid, to a waste collector; and vice versa,
Composition comprising, in a physiologically acceptable oily medium, 4-(3-ethoxy-4-hydroxyphenyl)-2-butanone and an organic solvent with solubility parameters in the Hansen solubility space such that 4.5 < δ a < 7 and 14 < δ d < 22, chosen from isopropyl N-lauroyl sarcosinate, capric/caprylic acid triglycerides, 2-phenylethyl benzoate, isopropyl palmitate and isopropyl myristate.
Use of a compound of formula I, at a concentration in the final formulation comprised between 10 and 250 mM: wherein: • G is a C6-C10 phenyl or alkylphenyl group, the phenyl group being optionally substituted by one or more hydroxyl groups, • L is either a bond or a function selected from the group consisting of the ether function, the carbonate function or the amide function, • m and n are identical or different whole numbers between 0 and 2, such that 0 < m + n ≤ 3, • R 1, R 2, R 3, identical or different, are either a hydrogen atom or a chain including 1 to 4 carbon atoms, said chain optionally comprising one or more heteroatoms N or O, • R 4, R 5, R 6, and R 7, identical or different, are either a hydrogen atom or a chain including 1 to 6 carbon atoms, but not bearing a carboxylic acid function, • X - is an anion selected from the group consisting of the halides, the carboxylates, the sulfates, phosphates and sulfonates, • the asymmetric carbon atoms have an R or S configuration. said compound having a solubility in water ≥ 20 mM at a pH between 5 and 8, in order to lower the viscosity of a difficult-to-inject solution of at least one protein comprising at least one antibody fragment the concentration of which is between 50 and 350 mg/mL and the pH of which is between 5 and 8, by a value of at least 15% with respect to the viscosity of a solution of at least one protein comprising at least one antibody fragment, having the same concentration and the same pH and not containing said compound. • G is a C6-C10 phenyl or alkylphenyl group, the phenyl group being optionally substituted by one or more hydroxyl groups, • L is either a bond or a function selected from the group consisting of the ether function, the carbonate function or the amide function, • m and n are identical or different whole numbers between 0 and 2, such that 0 < m + n ≤ 3, • R 1, R 2, R 3, identical or different, are either a hydrogen atom or a chain including 1 to 4 carbon atoms, said chain optionally comprising one or more heteroatoms N or O, • R 4, R 5, R 6, and R 7, identical or different, are either a hydrogen atom or a chain including 1 to 6 carbon atoms, but not bearing a carboxylic acid function, • X - is an anion selected from the group consisting of the halides, the carboxylates, the sulfates, phosphates and sulfonates, • the asymmetric carbon atoms have an R or S configuration.
An illumination device, comprising: a plurality of emitter modules spaced apart from each other and arranged in a line, wherein each emitter module comprises an array of at least two different colors of light emitting diodes (LEDs), which are mounted on a substrate and encapsulated within a shallow dome, and wherein a flattened shape of the shallow dome allows a greater portion of light emitted by the array of LEDs to emanate sideways from the emitter module than a hemispherical shaped dome; and a reflector (22, 23) comprising a plurality of louvers (110- 115), wherein each louver is centered upon and suspended a spaced distance above a different one of the emitter modules to focus a majority of light emitted by that emitter module into an output beam, and wherein each louver is configured to reflect the portion of the light that emanates sideways from adjacent emitter modules to improve color mixing in the output beam. a plurality of emitter modules spaced apart from each other and arranged in a line, wherein each emitter module comprises an array of at least two different colors of light emitting diodes (LEDs), which are mounted on a substrate and encapsulated within a shallow dome, and wherein a flattened shape of the shallow dome allows a greater portion of light emitted by the array of LEDs to emanate sideways from the emitter module than a hemispherical shaped dome; and a reflector (22, 23) comprising a plurality of louvers (110- 115), wherein each louver is centered upon and suspended a spaced distance above a different one of the emitter modules to focus a majority of light emitted by that emitter module into an output beam, and wherein each louver is configured to reflect the portion of the light that emanates sideways from adjacent emitter modules to improve color mixing in the output beam.
A load sensor comprising: a pin having a hole provided in a region of the neutral axis of the pin; at least one detection rod (2, 6, 8, 9, 14) provided in the region of the neutral axis of said pin in an inner portion of said hole; at least one semiconductor load sensor (3, 4, 7) being provided in said hole; and a shock relaxation material (5, 10) provided in said hole in such a manner as to cover said semiconductor load sensor (3, 4, 7) and said detection rod (2, 6, 8, 9, 14), wherein the Young 's modulus of said shock relaxation material (5, 10) is lower than the Young's modulus of said pin and said detection rod (2, 6, 8, 9, 14), characterized in that said at least one semiconductor load sensor is a semiconductor strain sensor (3, 4, 7) which is attached on a surface of said at least one detection rod (2, 6, 8, 9, 14) measuring the strain of the at least one detection rod (2, 6, 8, 9, 14). a pin having a hole provided in a region of the neutral axis of the pin; at least one detection rod (2, 6, 8, 9, 14) provided in the region of the neutral axis of said pin in an inner portion of said hole; at least one semiconductor load sensor (3, 4, 7) being provided in said hole; and a shock relaxation material (5, 10) provided in said hole in such a manner as to cover said semiconductor load sensor (3, 4, 7) and said detection rod (2, 6, 8, 9, 14), wherein the Young 's modulus of said shock relaxation material (5, 10) is lower than the Young's modulus of said pin and said detection rod (2, 6, 8, 9, 14), characterized in that said at least one semiconductor load sensor is a semiconductor strain sensor (3, 4, 7) which is attached on a surface of said at least one detection rod (2, 6, 8, 9, 14) measuring the strain of the at least one detection rod (2, 6, 8, 9, 14).
A nasal cannula (54, 76, 78), comprising; one or more nasal inserts (60A, 60B, 60) for delivering a fluid to a nasal passageway of a user; at least one attachment panel (64A, 64B, 64) in which is provided one or more apertures; an adhesive layer provided on said at least one attachment panel and being structured to temporarily bond to the skin of such a user, said adhesive layer comprising a polymer gel; and a fluid delivery tube in fluid communication with said one or more nasal inserts; wherein the fluid delivery tube is inserted through the one or more apertures such that the at least one attachment panel is free to move relative to said fluid delivery tube prior to being temporarily bonded to the skin of such a user.
An ionizing radiation detection device comprising: - a detector of semi-conductor material, - electrodes (3.1, 3.2) for biasing the detector, among which reading electrodes (3.2) capable of collecting charges created in the detector during an interaction between the ionizing radiation and the semi-conductor material of the detector, and - a reading circuit at which are connected the electrodes, the reading circuit including: • first processing means (2.3) capable of providing a pulse when a charge has been collected by one of the reading electrodes, the pulse being formed with respect to a baseline, • second means (2.4) for processing the pulse provided by the first processing means including: ∘ determining means of at least one parameter from a time parameter of the pulse and an amplitude value of the pulse after a baseline crossing between the start and the end of the pulse, ∘ rejecting means of the pulse depending on the value of said parameter and for preserving the pulse if it is not rejected, • operating means (2.5) of the pulse preserved by the rejecting means. - a detector of semi-conductor material, - electrodes (3.1, 3.2) for biasing the detector, among which reading electrodes (3.2) capable of collecting charges created in the detector during an interaction between the ionizing radiation and the semi-conductor material of the detector, and - a reading circuit at which are connected the electrodes, the reading circuit including: • first processing means (2.3) capable of providing a pulse when a charge has been collected by one of the reading electrodes, the pulse being formed with respect to a baseline, • second means (2.4) for processing the pulse provided by the first processing means including: ∘ determining means of at least one parameter from a time parameter of the pulse and an amplitude value of the pulse after a baseline crossing between the start and the end of the pulse, ∘ rejecting means of the pulse depending on the value of said parameter and for preserving the pulse if it is not rejected, • operating means (2.5) of the pulse preserved by the rejecting means. • first processing means (2.3) capable of providing a pulse when a charge has been collected by one of the reading electrodes, the pulse being formed with respect to a baseline, • second means (2.4) for processing the pulse provided by the first processing means including: ∘ determining means of at least one parameter from a time parameter of the pulse and an amplitude value of the pulse after a baseline crossing between the start and the end of the pulse, ∘ rejecting means of the pulse depending on the value of said parameter and for preserving the pulse if it is not rejected, ∘ determining means of at least one parameter from a time parameter of the pulse and an amplitude value of the pulse after a baseline crossing between the start and the end of the pulse, ∘ rejecting means of the pulse depending on the value of said parameter and for preserving the pulse if it is not rejected, • operating means (2.5) of the pulse preserved by the rejecting means.
Receiving unit for a wireless communication network comprising a processing unit being configured to generate Automatic Repeat request, ARQ, feedback messages for acknowledgement or negative acknowledgement of received data units in a wireless communication channel, said processing unit is further configured to delay the generation of Automatic Repeat request feedback messages until the processing unit has recognized irregularities in the data transmission, characterized in that the processing unit is further configured to read a connection identification, CID, from a downlink MAP and recognizes an irregularity if the MAC PDUs corresponding the connection identification are not correctly received.
A method of generating a bitstream representative of multi-channel audio content, the method comprising: generating multi-channel audio content for transmission to a content consumer; specifying data in the bitstream comprising a plurality of matrices and the order of the plurality of matrices; and specifying audio rendering information in the bitstream, wherein the audio rendering information further includes a signal value that includes two or more bits that define an index associated with one of the plurality of matrices, wherein the index uniquely identifies which of the plurality of matrices was used to configure the audio renderer of the content creator for rendering the set of spherical harmonic coefficients to a plurality of speaker feeds when generating the multi-channel audio content. generating multi-channel audio content for transmission to a content consumer; specifying data in the bitstream comprising a plurality of matrices and the order of the plurality of matrices; and specifying audio rendering information in the bitstream, wherein the audio rendering information further includes a signal value that includes two or more bits that define an index associated with one of the plurality of matrices, wherein the index uniquely identifies which of the plurality of matrices was used to configure the audio renderer of the content creator for rendering the set of spherical harmonic coefficients to a plurality of speaker feeds when generating the multi-channel audio content.
A teardrop-shaped magnetic core that is made from a magnetic material and is to be used in a coil device, the magnetic core comprising: a first rectilinear portion and a second rectilinear portion that have a straight-line shape and are connected to each other at one end via a bent portion that is bent at a right angle; and a circular arc portion that has a circular arc shape and connects the first rectilinear portion and the second rectilinear portion to each other at the other end, the first rectilinear portion having a gap portion, the gap portion including a first end surface and a second end surface, characterised in that an outer circumferential surface and an inner circumferential surface of the bent portion have a circular arc shape, the first rectilinear portion, the bent portion, the second rectilinear portion, and the circular arc portion are coated with an electric insulation resin, except for the first end surface and the second end surface of the gap portion, wherein a surface of the resin with which the inner circumferential surface of the second rectilinear portion is coated is continuous with the first end surface of the gap portion. a first rectilinear portion and a second rectilinear portion that have a straight-line shape and are connected to each other at one end via a bent portion that is bent at a right angle; and a circular arc portion that has a circular arc shape and connects the first rectilinear portion and the second rectilinear portion to each other at the other end, the first rectilinear portion having a gap portion, the gap portion including a first end surface and a second end surface, characterised in that an outer circumferential surface and an inner circumferential surface of the bent portion have a circular arc shape, the first rectilinear portion, the bent portion, the second rectilinear portion, and the circular arc portion are coated with an electric insulation resin, except for the first end surface and the second end surface of the gap portion, wherein a surface of the resin with which the inner circumferential surface of the second rectilinear portion is coated is continuous with the first end surface of the gap portion.
A method for i) diagnosing or determining the status of tuberculosis infection or ii) for predicting a clinical outcome or determining the treatment course in an individual afflicted with tuberculosis infection, or iii) for the stratification of the therapeutic regimen of an individual with tuberculosis infection in an individual afflicted with or suspected to be afflicted with tuberculosis infection, comprising: a) determining the level or amount of cytokines released or produced by mononuclear cells after stimulation, whereby said mononuclear cells are from said individual; and b) i) determining or diagnosing the status of said individual based on the level or amount of cytokines released or produced from the mononuclear cells, or ii) predicting the clinical outcome or determining the treatment course based on the level or amount of cytokines released or produced from said mononuclear cells after stimulation, or iii) determining the status of tuberculosis infection based on the level or amount of cytokines released or produced from said mononuclear cells after stimulation allowing differentiation of a latent and active status of tuberculosis infection in said individual, characterized in that the mononuclear cells are stimulated with mycobacterial Alanine Dehydrogenase (AlaDH), and wherein the cytokines to be determined is IL-2. a) determining the level or amount of cytokines released or produced by mononuclear cells after stimulation, whereby said mononuclear cells are from said individual; and b) i) determining or diagnosing the status of said individual based on the level or amount of cytokines released or produced from the mononuclear cells, or ii) predicting the clinical outcome or determining the treatment course based on the level or amount of cytokines released or produced from said mononuclear cells after stimulation, or iii) determining the status of tuberculosis infection based on the level or amount of cytokines released or produced from said mononuclear cells after stimulation allowing differentiation of a latent and active status of tuberculosis infection in said individual,
An insulated pipe structure comprising: a. a pipe having an outer surface; b. an insulating material including aerogel wrapped over the outer surface to form an insulating layer; and c. at least one cover layer that covers the insulating layer, characterized in that a flexible container enclosing granular aerogel is positioned or wrapped over the outer surface of the pipe to form the insulating layer and the container is notched or in the form of bubble wrap and wherein the at least one cover layer is a polymeric layer, e.g. an elastomer, or a thin metal film, and compresses the insulating layer such that the insulating properties of the insulating layer are increased. a. a pipe having an outer surface; b. an insulating material including aerogel wrapped over the outer surface to form an insulating layer; and c. at least one cover layer that covers the insulating layer, characterized in that a flexible container enclosing granular aerogel is positioned or wrapped over the outer surface of the pipe to form the insulating layer and the container is notched or in the form of bubble wrap and wherein the at least one cover layer is a polymeric layer, e.g. an elastomer, or a thin metal film, and compresses the insulating layer such that the insulating properties of the insulating layer are increased.