mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a HTTP client node for receiving streaming media content from a HTTP server node in a communication system, said media content being arranged as a plurality of periods, and each said period comprising a plurality of representations of media segments, characterized by: receiving temporal alignment information for said media segments of said plurality of representations, said temporal alignment information providing indications about a temporal relation between the segments of said plurality of representations of said media content, wherein said temporal alignment information indicates a segment duration for at least one segment of at least one of said plurality of representations and that said plurality of representations share a common starting time; receiving key frame location information for said media segments, said key frame location information providing explicit indications that said media segments of said plurality of representations start with a key frame; controlling adaptation of said HTTP streaming of said media content based on said received temporal alignment information and said received key frame location information. receiving temporal alignment information for said media segments of said plurality of representations, said temporal alignment information providing indications about a temporal relation between the segments of said plurality of representations of said media content, wherein said temporal alignment information indicates a segment duration for at least one segment of at least one of said plurality of representations and that said plurality of representations share a common starting time; receiving key frame location information for said media segments, said key frame location information providing explicit indications that said media segments of said plurality of representations start with a key frame; controlling adaptation of said HTTP streaming of said media content based on said received temporal alignment information and said received key frame location information.
A contact imaging device comprising: an imaging sensor; a fixed fiber faceplate (302, 800) mechanically coupled to the imaging sensor; and an optical filtering layer mechanically coupled to the fixed fiber faceplate (302, 800); wherein the optical filtering layer further comprises a removable fiber faceplate and a transmission filter, the removable fiber faceplate is bonded on one side with the transmission filter; characterized in that the contact image device comprises a reversible mechanism for attachment and detachment of the optical filtering layer to and from the fixed fiber faceplate (302, 800), and in that the contact imaging device is provided as a kit with two or more optical filtering layers, each with a different configuration of optical components. an imaging sensor; a fixed fiber faceplate (302, 800) mechanically coupled to the imaging sensor; and an optical filtering layer mechanically coupled to the fixed fiber faceplate (302, 800); wherein the optical filtering layer further comprises a removable fiber faceplate and a transmission filter, the removable fiber faceplate is bonded on one side with the transmission filter; characterized in that the contact image device comprises a reversible mechanism for attachment and detachment of the optical filtering layer to and from the fixed fiber faceplate (302, 800), and in that the contact imaging device is provided as a kit with two or more optical filtering layers, each with a different configuration of optical components.
Method for determining the state of charge of a battery comprising the steps: connecting a recharge prediction unit to the battery before charging the battery, charging (16, 204) the battery, measuring (14, 18) battery parameters during the charging of the battery, disconnecting the recharge prediction unit from the battery before discharging the battery, discharging the battery, predicting the state of charge of the battery using the recharge prediction unit and using the battery parameters measured during charging (16, 204) of the battery, the prediction being without carrying out any measurements during the discharging of the battery, wherein the recharge prediction unit is disconnected from the battery during the discharging of the battery. connecting a recharge prediction unit to the battery before charging the battery, charging (16, 204) the battery, measuring (14, 18) battery parameters during the charging of the battery, disconnecting the recharge prediction unit from the battery before discharging the battery, discharging the battery, predicting the state of charge of the battery using the recharge prediction unit and using the battery parameters measured during charging (16, 204) of the battery, the prediction being without carrying out any measurements during the discharging of the battery, wherein the recharge prediction unit is disconnected from the battery during the discharging of the battery.
Magnetic sensor for displacement measurements comprising of ring magnets and a linear Hall sensor, characterised in that it consists of two ring magnets and, placed in parallel arrangement with like poles facing each other, wherein ring magnets and are permanently set inside the body made of a material characterized by a small thermal expansion coefficient within the range below 6 x 10 -6 m/(m•K), wherein in the internal space between the ring magnets or there is a linear Hall sensor, or other sensor for magnetic flux strength measurement, is placed.
Drive belt with an endless carrier and a number of transverse members that are provided on the endless carrier and that can slide relative to and in the circumference direction of such endless carrier, of which transverse members at least two types (I, II) of mutually different shape are included in the drive belt, characterised in that, a largest width (W I), i.e. a largest axial dimension (W I) of a first transverse member type is larger than a largest width dimension (W II) of a second transverse member type.
A vented garment (2500, 2600, 2700, 2800, 2900, 3000, 3100) comprising at least one vented garment panel, the vented garment panel comprising: a first layer and a second layer affixed to each other at a plurality of seams (2550, 2650, 2750, 2850, 2970, 3050, 3150), wherein the plurality of seams are collectively configured to define a plurality of interconnected chambers (2501, 2680, 2780, 2880, 2980, 3040, 3350); a thermally insulating material (330, 630) contained within the plurality of interconnected chambers; and at least one opening (2510, 2540, 2560, 2610, 2640, 2690, 2710, 2740, 2790, 2810, 2840, 2890, 2940, 2960, 2972, 3012, 3060, 3112, 3160, 3340) on a portion of at least one seam, the at least one opening extending through the portion of the at least one seam, through the first layer, and through the second layer, characterized in that each seam (2551, 2552, 2553, 2554, 2556, 2558, 2652, 2654, 2656, 2658, 2660, 2662, 2664, 2666) in the plurality of seams (2550, 2650, 2750, 2850, 2970, 3050, 3150) comprises an angular orientation such that the each seam (2551, 2552, 2553, 2554, 2556, 2558, 2652, 2654, 2656, 2658, 2660, 2662, 2664, 2666) is angularly oriented with respect to an adjacent seam (2551, 2552, 2553, 2554, 2556, 2558, 2652, 2654, 2656, 2658, 2660, 2662, 2664, 2666) of the plurality of seams (2550, 2650, 2750, 2850, 2970, 3050, 3150), wherein the angular orientation of the plurality of seams (2550, 2650, 2750, 2850, 2970, 3050, 3150) forms or defines the plurality of interconnected chambers (2501, 2680, 2780, 2880, 2980, 3040, 3350).
A current bus comprising an opening that extends from one side of the current bus to an opposing side of the current bus; and a current sensor extending through or located within a centre of the opening to measure a magnetic field in the centre of the opening; characterized in that the opening is circular and changes in size as the opening extends from one side of the current bus to an opposing side of the current bus, the opening includes a first diameter and a second diameter, the first diameter is less than the second diameter, and a first thickness of the opening at the first diameter is less than 20% of a third thickness of the opening at the second diameter.
A cleaner for use in washing an internal surface of a container, the cleaner comprising: an elongate boom having a head; a pump to supply water to the head; the head having a pressure chamber characterized in that the head having a multiplicity of nozzles in fluid communication with the pressure chamber, at least a portion of each nozzle being angled with respect to a longitudinal axis of the head, and a washdown hose in fluid communication with the pump, for use in washing an external surface of the container. an elongate boom having a head; a pump to supply water to the head; the head having a pressure chamber characterized in that the head having a multiplicity of nozzles in fluid communication with the pressure chamber, at least a portion of each nozzle being angled with respect to a longitudinal axis of the head, and a washdown hose in fluid communication with the pump, for use in washing an external surface of the container.
A preparation process for a liquid hydrosilicone resin, having an average compositional formula: (R 1 R 2 R 3 SiO 1/2) M ·(R 4 R 5 SiO 2/2) D ·(R 6 SiO 3/2) T ·(SiO 4/2) Q, wherein R 1 to R 6 are identical or different radicals independently selected from the group consisting of organic groups and a hydrogen atom, with the proviso that at least one of R 1 to R 6 is a hydrogen atom bonded directly to a silicon atom, and M, T, and Q each represent a number ranging from 0 to less than 1, D represents a number larger than 0 and less than 1, M+D+T+Q = 1, and T+Q > 0; said resin having an average of at least two hydrogen atoms bonded directly to a silicon atom per molecule and a weight-average molecular weight of 10,000-300,000 g/mol, comprising: dispersing at least one hydrosilicone oil, at least one hydroxyl silicone resin and at least one dehydrogenation catalyst in a solvent to form a dispersion, allowing the dispersion to react, and then removing the solvent and the catalyst, wherein the hydrosilicone oil comprises a linear hydrosilicone oil of the following formula and/or a cyclic hydrosilicone oil of the following formula: in which R is methyl or hydrogen, m > 0, n ≥ 0, the number of Si-H groups per molecule ≥ 3, and the content of hydrogen atoms directly bonded to Si-atoms is 0.1-1.6 wt% based on the total weight of the hydrosilicone oil, in which x > 0, y ≥ 0, the number of Si-H groups per molecule ≥ 3, and the content of hydrogen atoms directly bonded to Si-atoms is 0.1-1.6 wt% based on the total weight of the hydrosilicone oil; the hydroxyl silicone resin has an average compositional formula: (R' 1 R' 2 R' 3 SiO 1/2) M '·(R' 4 R' 5 SiO 2/2) D' ·(R' 6 SiO 3/2) T' ·(SiO 4/2) Q', in which R' 1 to R' 6 are identical or different radicals independently selected from the group consisting of organic groups and hydroxyl groups, and at least one of R' 1 to R' 6 is a hydroxyl group, M', D', T' and Q' each represent a number ranging from 0 to less than 1, M'+D'+T'+Q' -- 1, and T'+Q' > 0, and the number of Si-OH groups per molecule of the hydroxyl silicone resin ≥ 3; provided that the molar ratio of the Si-H groups In the hydrosilicone oil to the Si-OH groups in the hydroxyl silicone resin Is from more than 1.0 to 100.0. wherein R 1 to R 6 are identical or different radicals independently selected from the group consisting of organic groups and a hydrogen atom, with the proviso that at least one of R 1 to R 6 is a hydrogen atom bonded directly to a silicon atom, and M, T, and Q each represent a number ranging from 0 to less than 1, D represents a number larger than 0 and less than 1, M+D+T+Q = 1, and T+Q > 0; in which R' 1 to R' 6 are identical or different radicals independently selected from the group consisting of organic groups and hydroxyl groups, and at least one of R' 1 to R' 6 is a hydroxyl group, M', D', T' and Q' each represent a number ranging from 0 to less than 1, M'+D'+T'+Q' -- 1, and T'+Q' > 0, and the number of Si-OH groups per molecule of the hydroxyl silicone resin ≥ 3;
A silicon nitride substrate manufacturing method in which a slurry is produced by mixing a silicon nitride powder, a sintering additive powder, a binder, and a dispersant in an organic solvent which is a dispersion medium in a mixing process, and the slurry is formed into a sheet, followed by degreasing and sintering, characterized in that; the Al concentration in the silicon nitride substrate is 0.3 mass% or less in terms of Al 2 O 3, the oxygen content of the silicon nitride powder is 2.0 mass% or less and the specific surface area of the same is 3 to 11 m 2 /g, the additive ratio of the sintering additive powder is 4 to 15 mol%, the additive amount of the binder is 8 to 25 parts by mass relative to total 100 parts by mass of the silicon nitride powder and sintering additive powder, the water content ratio of the organic solvent is 0.03 to 3 mass%, and the additive amount of the dispersant is 0.1 to 1 mass % relative to the raw material powder, and the slurry is produced by mixing the silicon nitride powder, the sintering additive powder, the binder, and the dispersant in the organic solvent at a temperature of 10 ∼45°C in the mixing process by a water-cooling jacket type ball mill, so that an oxygen increase from the silicon nitride powder before the mixing to the silicon nitride powder after the mixing is in a range of 0.05 to 0.5 mass%, a specific surface area of the powder after the mixing is 5 to 12 m 2 /g.
Rotor body (1; 11) for a rotor of a rotating electrical machine, in particular of a turbogenerator, having at least one pole axis running perpendicular to a longitudinal centre axis of the rotor body (1; 11), wherein at least one section of the rotor body (1; 11) has at least two alternately arranged layers (4, 5; 13, 14) produced from different materials, wherein the materials differ from one another in terms of their respective electrical conductivity, wherein a layer sequence direction of a layer structure (7; 12) formed by the layers (4, 5; 13, 14) runs perpendicular to the pole axis and to the longitudinal centre axis and wherein the rotor body (1; 11) is highly magnetically conductive parallel to the pole axis, characterized in that the rotor body (1; 11) forms a plurality of axially running reception grooves, arranged distributed over the circumference of the rotor body blank, for receiving a respective conductor section of a rotor winding of the rotor, wherein the reception grooves are formed on the rotor body blank such that the rotor body (1; 11) has a pole axis running perpendicular to a longitudinal centre axis of the rotor body (1; 11) and that runs parallel to the layers (4, 5; 13, 14).
Stator for an electric rotating machine, which has a laminated stator core with coil bars and at least one stator winding head board with an insulating main body, wherein the coil bars in each case have multiple subconductors, wherein conducting tracks are integrated into the insulating main body, wherein the at least one stator winding head board abuts an end face of the laminated stator core, wherein the conducting tracks are connected to the subconductors of the coil bars in a material-bonded manner and wherein each subconductor is connected in each case to at least one separate conducting track.
A polymer composition comprising a polymer having shape memory properties and having crosslinkable sites substantially regularly spaced along the polymer chain which, when crosslinked, forms a thermoset polymer having shape memory properties, wherein the polymer has one or more of: a backbone comprising, in the following order: an electron withdrawing group, a methylene or methyne carbon in the alpha position to the electron withdrawing group, and an unsaturated carbon-carbon double bond in the beta position to the electron withdrawing group; or a side chain which contains, in the following order: an electron withdrawing group, a methylene or methyne carbon in the alpha position to the electron withdrawing group, and an unsaturated carbon-carbon double bond in the beta position to the electron withdrawing group, and wherein the polymer is a polyurethane.
A gas chromatography instrument and burner, the burner comprising: a burning chamber; a gas inlet, configured to allow entry of the gas from the GC instrument into the burning chamber; an oxygen mix inlet, configured to allow entry of an oxygen mix into the burning chamber; a flammable gas inlet, configured to allow entry of a flammable gas into the burning chamber, and an igniter, capable of igniting gases in the burning chamber, characterized in that the burner is connected to the GC instrument and configured to burn gas released from an injection port of the GC instrument. a burning chamber; a gas inlet, configured to allow entry of the gas from the GC instrument into the burning chamber; an oxygen mix inlet, configured to allow entry of an oxygen mix into the burning chamber; a flammable gas inlet, configured to allow entry of a flammable gas into the burning chamber, and an igniter, capable of igniting gases in the burning chamber, characterized in that the burner is connected to the GC instrument and configured to burn gas released from an injection port of the GC instrument.
A work vehicle comprising a working device installed on a frame structure (1A, 1B) constituting a vehicle body and a cab mounted on the frame structure (1A, 1B), wherein the cab is provided with a driver's seat mounted on a floorboard, a pair of pillars extending in a vertical direction between a ceiling and the floorboard at left and right sides in front of the driver's seat, an operating lever for operating the working device, and a switchbox having an operating surface in which multiple operating switches are arranged, wherein the operating lever is placed between one pillar of the pair of pillars and the driver's seat in left and right direction of the cab; the switchbox is installed to the one pillar with its long side direction being along the pillar extension direction; and the operating surface is oriented toward a direction along an imaginary line that passes through the center in its short side direction and extends perpendicular to the surface, the imaginary line intersecting a backrest of the driver's seat and a center line with respect to the left and right direction of the cab, characterized in that one side of the switchbox in a short side direction has a guide formed to overhang out along the long side direction. wherein the operating lever is placed between one pillar of the pair of pillars and the driver's seat in left and right direction of the cab; the switchbox is installed to the one pillar with its long side direction being along the pillar extension direction; and the operating surface is oriented toward a direction along an imaginary line that passes through the center in its short side direction and extends perpendicular to the surface, the imaginary line intersecting a backrest of the driver's seat and a center line with respect to the left and right direction of the cab, characterized in that one side of the switchbox in a short side direction has a guide formed to overhang out along the long side direction.
A cosmetic method for regulating the condition of mammalian skin, wherein the skin has at least three layers: a stratum corneum exterior layer; an epidermis; and a dermis, comprising the steps of: (a) applying prior to and/or during delivery of energy a first personal care composition to an area of skin where regulation is desired, wherein the first personal care composition comprises a gel composition; and (b) delivering energy to the dermis to heat collagen in the dermis such that the heated collagen in the dermis heats the epidermis and stratum corneum until the stratum corneum reaches an external temperature of from about 37°C to about 48°C, wherein the energy delivery to the dermis is then controlled to maintain the temperature of the stratum corneum in the range of from about 37°C to about 48°C, and wherein the energy is delivered by an RF energy delivery device and the RF energy is delivered via two or more electrodes that contact the stratum corneum via the gel composition; the method further comprising the step of determining an expression profile of a gene panel consisting of at least one gene selected from the group consisting of SEQ ID NO: 1-9 and/or SEQ ID NO: 10-14 and at least one gene selected from the group consisting of SEQ ID NO: 15-17, wherein upregulation of the at least one gene selected from the group consisting of SEQ ID NO: 1-14 and/or SEQ ID NO: 10-14 and substantially no change in expression of the at least one gene from the group consisting of SEQ ID NO: 15-17 is indicative of induction of collagen formation and/or dermal remodeling in absence of a skin-damaging inflammatory cytokine response. (a) applying prior to and/or during delivery of energy a first personal care composition to an area of skin where regulation is desired, wherein the first personal care composition comprises a gel composition; and (b) delivering energy to the dermis to heat collagen in the dermis such that the heated collagen in the dermis heats the epidermis and stratum corneum until the stratum corneum reaches an external temperature of from about 37°C to about 48°C, wherein the energy delivery to the dermis is then controlled to maintain the temperature of the stratum corneum in the range of from about 37°C to about 48°C, and wherein the energy is delivered by an RF energy delivery device and the RF energy is delivered via two or more electrodes that contact the stratum corneum via the gel composition;
Method for the redundant transmission of messages in a distributed real-time system, wherein the real-time system comprises two or more computing nodes and one or more star couplers, wherein the computing nodes are connected to the star couplers by means of bidirectional communication lines (301, 302, 303) and the star couplers are connected to one another by bidirectional communication lines, and wherein the star couplers connected by the communication lines form a network infrastructure, and wherein at least some of the messages are sent redundantly, and wherein messages belonging to a message stream have the same identity, wherein one or more activity rasters are performed by one or more star couplers of the network infrastructure, wherein an activity raster in each case consists of alternating active phases and rest phases, wherein all active phases of an activity raster have the same active phase duration, and wherein all rest phases of an activity raster have the same rest phase duration, and wherein the active phase duration and the rest phase duration of an activity raster may be identical or different, characterized in that each message sent in the network infrastructure is assigned, depending on its identity, to precisely one activity raster by the star coupler(s), and wherein the messages are sent only in active phases so that a receiver receiving messages detects that the messages are redundant copies of the same message if the receiver receives messages with the same identity within a time interval, which time interval has a duration corresponding to the active phase duration of the activity raster for messages having this identity.