mhurhangee/ep-ind-claims huggingface dataset:
Link plate for connection to a conductor bar of a gas-insulated substation, a ground-connected low current device, where the said plate can be operated when it is not energised, to disconnect the device in preparation for an operational test phase on the substation, the said plate comprising: - an electrode designed to be connected to the device, the said electrode having a free end carrying a rotating moveable contactor between a closed position, where it serves as an extension of the said electrode to have its free end pressed against a terminal of the conductor bar, and an open disconnected position where its free end is spaced apart from the area electrode extension area carrying it; - a slidably mounted button on the free end of the moveable contactor with a spring that systematically returns the button to an output position, for it to exert a proper support on the stationary contact when the moveable contactor is in the closed position; - a sealed envelope portion surrounding the electrode and the moveable contact it carries; - an arm connected to the moveable contactor and creating a sealed passage through the envelope portion, such that it can be operated out of the said envelope in order to move the moveable contactor from one position to another. - an electrode designed to be connected to the device, the said electrode having a free end carrying a rotating moveable contactor between a closed position, where it serves as an extension of the said electrode to have its free end pressed against a terminal of the conductor bar, and an open disconnected position where its free end is spaced apart from the area electrode extension area carrying it; - a slidably mounted button on the free end of the moveable contactor with a spring that systematically returns the button to an output position, for it to exert a proper support on the stationary contact when the moveable contactor is in the closed position; - a sealed envelope portion surrounding the electrode and the moveable contact it carries; - an arm connected to the moveable contactor and creating a sealed passage through the envelope portion, such that it can be operated out of the said envelope in order to move the moveable contactor from one position to another.
Safety rail for installation in vehicles, Wherein the safety rail is designed as at least one profile, having in its upper side a multiplicity of recesses which have one or more undercuts, with the profile consisting of a formed sheet metal, wherein at least one centre section and two arms arranged laterally thereof are provided, with the centre section being formed symmetrically with respect to the longitudinal axis of the safety rail, and wherein the arms are folded upwards and then outwards and form a first wing (upper wing 42) in the profile cross-section of the safety rail when viewing from the centre section, which are then are guided downward and are folded further outward in the lower section where they form a second wing (outer wing 43) or are then are guided downward and turned inside again in the lower section where they form a second wing (inner wing 44), characterised in that the recesses are each formed from two punchings in the material of the safety rail, which are arranged opposite one another by the forming process and thus create approximately the shape of a recess in a conventional safety rail.
A method for fabricating core-shell particles, the method comprising: forming a first solution including a first metal salt, a first surfactant, and a first solvent; forming core particles including a first metal included in the first metal salt by adding a first reducing agent to the first solution; forming a second solution including the core particles, a second metal salt, a second surfactant, and a second solvent; and forming core-shell particles by adding a second reducing agent to the second solution and forming a shell on a surface of the core particle, wherein the first surfactant and the second surfactant are each independently polyoxyethylene, polyoxyethylene sorbitan monolaurate or polyoxyethylene oleyl ether, wherein the first solvent and the second solvent is water, a concentration of the first surfactant is from two times to 10 times the critical micelle concentration to water in the first solution, a concentration of the second surfactant is from two times to 10 times the critical micelle concentration to water in the second solution. forming a first solution including a first metal salt, a first surfactant, and a first solvent; forming core particles including a first metal included in the first metal salt by adding a first reducing agent to the first solution; forming a second solution including the core particles, a second metal salt, a second surfactant, and a second solvent; and forming core-shell particles by adding a second reducing agent to the second solution and forming a shell on a surface of the core particle, wherein the first surfactant and the second surfactant are each independently polyoxyethylene, polyoxyethylene sorbitan monolaurate or polyoxyethylene oleyl ether, wherein the first solvent and the second solvent is water, a concentration of the first surfactant is from two times to 10 times the critical micelle concentration to water in the first solution, a concentration of the second surfactant is from two times to 10 times the critical micelle concentration to water in the second solution.
A computer implemented method for determining a copy number variation of a nucleic acid sequence of interest in a test sample comprising cell-free nucleic acid fragments originating from two or more genomes, the method comprising: (a) receiving sequence reads obtained by sequencing the cell-free nucleic acid fragments in the test sample; (b) aligning the sequence reads of the cell-free nucleic acid fragments to a reference genome comprising the sequence of interest, thereby providing test sequence tags, wherein the reference genome is divided into a plurality of bins; (c) determining sizes of at least some of the cell-free nucleic acid fragments existing in the test sample; (d) weighting the test sequence tags based on the sizes of cell-free nucleic acid fragments from which the tags are obtained; (e) calculating coverages for the bins based on the weighted test sequence tags; and (f) identifying a copy number variation in the sequence of interest from the calculated coverages by comparison to a qualified sample, wherein the coverages based on the weighted tags provide both a higher sensitivity and a higher selectivity compared to un-weighted coverages in determining copy number variation. (a) receiving sequence reads obtained by sequencing the cell-free nucleic acid fragments in the test sample; (b) aligning the sequence reads of the cell-free nucleic acid fragments to a reference genome comprising the sequence of interest, thereby providing test sequence tags, wherein the reference genome is divided into a plurality of bins; (c) determining sizes of at least some of the cell-free nucleic acid fragments existing in the test sample; (d) weighting the test sequence tags based on the sizes of cell-free nucleic acid fragments from which the tags are obtained; (e) calculating coverages for the bins based on the weighted test sequence tags; and (f) identifying a copy number variation in the sequence of interest from the calculated coverages by comparison to a qualified sample,
Composite material, comprising at least one binder and at least one filler fraction, the composite material having a density of less than 2 g/cm 3, the at least one binder being selected from a group comprising acrylate and polyester, the composite material comprising at least two filler fractions, at least a first filler fraction comprising polymer fillers in particulate form, the filler of the first filler fraction being polyethylene, in particular HD polyethylene, and a second filler fraction comprising mineral fillers, the composite material comprising 0.05-40 wt.% fillers of the first filler fraction, the first filler fraction comprising polymer fillers in particulate form having a specific density of < 2 g/cm 3 and thus a lower specific density than the fillers of the second filler fraction, characterised in that fillers of the first filler fraction have an open and/or sponge-like and/or porous structure and/or a roughness that allows an interlocking connection between the binder and the particle, a permanent bond involving interlocking being formed between the particles of the first filler fraction and the binder, and the first filler fraction being penetrated, completely or in part, by the binder, the modulus of elasticity of the first filler fraction being lower than the modulus of elasticity of the binder, and the fillers of the first filler fraction having an average particle size in a range of from 1-300 μm.
A method for producing a high solubility Stevia sweetener comprising the steps of: A) providing a first Stevia sweetener, wherein the first Stevia sweetener is Rebaudioside D; B) providing a second Stevia sweetener, wherein the second Stevia sweetener is Rebaudioside B; C) providing water; D) mixing the water and first and second Stevia sweeteners to make a mixture; E) increasing the temperature of the mixture by a gradient method to make a solution, wherein the water and Stevia sweetener mixture is heated at a gradient of about 1°C per minute; F) holding the solution at an elevated temperature of about 118-125°C for a period of about 50-70 minutes; G) decreasing the temperature of the solution by a gradient method to obtain a high stability and high concentration Stevia sweetener solution; and H) spray drying the high stability and high concentration Stevia sweetener solution, to provide the high solubility Stevia sweetener. A) providing a first Stevia sweetener, wherein the first Stevia sweetener is Rebaudioside D; B) providing a second Stevia sweetener, wherein the second Stevia sweetener is Rebaudioside B; C) providing water; D) mixing the water and first and second Stevia sweeteners to make a mixture; E) increasing the temperature of the mixture by a gradient method to make a solution, wherein the water and Stevia sweetener mixture is heated at a gradient of about 1°C per minute; F) holding the solution at an elevated temperature of about 118-125°C for a period of about 50-70 minutes; G) decreasing the temperature of the solution by a gradient method to obtain a high stability and high concentration Stevia sweetener solution; and H) spray drying the high stability and high concentration Stevia sweetener solution, to provide the high solubility Stevia sweetener.
A tissue construct-forming substrate for forming a three-dimensional tissue construct containing proliferating cells, the substrate comprising a porous film having through-holes communicating with other peripheral holes, and the porous film having, on a surface of the film, a plurality of cell adhesive regions capable of retaining cells and a cell non-adhesive region located at a peripheral region of the cell adhesive regions, wherein the cell non-adhesive region of the porous film forms a continuous region and the plurality of cell adhesive regions each have an area of from 300 μm to 1 × 10 6 μm 2 and are disposed such that the shortest distance between one cell adhesive region and another cell adhesive region adjacent thereto is in the range of from 50 μm to 1000 μm.
A data transmission timing control system for controlling the timing of data transmission from a mobile station to a base station, wherein said mobile station comprises: means for transmitting a transmission permission request signal to said base station at a transmission timing represented by the sum of a periodic reference timing and an offset value; and means for, if a transmission permission signal from said base station in response to said transmission permission request signal is not received, retransmitting said transmission permission request signal repeatedly while changing the offset value until said transmission permission signal is received; characterized by means for, if said transmission permission signal is received, transmitting data at the transmission timing that was used immediately before said transmission permission signal was received; wherein a change in the offset value is determined depending on the radius of an area covered by said base station, the transmitted electric power at said base station of a control signal transmitted from said base station, the received electric power at said mobile station of the control signal, and the number of times that said transmission permission request signal is transmitted. means for transmitting a transmission permission request signal to said base station at a transmission timing represented by the sum of a periodic reference timing and an offset value; and means for, if a transmission permission signal from said base station in response to said transmission permission request signal is not received, retransmitting said transmission permission request signal repeatedly while changing the offset value until said transmission permission signal is received; characterized by means for, if said transmission permission signal is received, transmitting data at the transmission timing that was used immediately before said transmission permission signal was received; wherein a change in the offset value is determined depending on the radius of an area covered by said base station, the transmitted electric power at said base station of a control signal transmitted from said base station, the received electric power at said mobile station of the control signal, and the number of times that said transmission permission request signal is transmitted.
A urine analyzer comprising: a sample preparation unit configured to mix a urine sample with a hemolytic agent to prepare a measurement sample; a flow cell through which the measurement sample flows; a light source configured to irradiate light on the measurement sample flowing through the flow cell; a light receiving unit configured to receive scattered light given off from the measurement sample by the irradiation of the light, and output a scattered light signal; and an analysis unit configured to detect fat particles which are aggregates of fat molecules existing extracellularly in the measurement sample using a parameter that reflects an intensity of the scattered light signal output by the light receiving unit and a parameter that reflects a time interval of a wave form of the scattered light signal from when the scattered light signal exceeds a threshold to when it falls below the threshold. a sample preparation unit configured to mix a urine sample with a hemolytic agent to prepare a measurement sample; a flow cell through which the measurement sample flows; a light source configured to irradiate light on the measurement sample flowing through the flow cell; a light receiving unit configured to receive scattered light given off from the measurement sample by the irradiation of the light, and output a scattered light signal; and an analysis unit configured to detect fat particles which are aggregates of fat molecules existing extracellularly in the measurement sample using a parameter that reflects an intensity of the scattered light signal output by the light receiving unit and a parameter that reflects a time interval of a wave form of the scattered light signal from when the scattered light signal exceeds a threshold to when it falls below the threshold.
A method for producing a urethane optical member, comprising polymerizing a monomer composition comprising a polythiol compound and at least one kind selected from (i) 4,4'-diphenylmethane diisocyanate and a compound of formula and (ii) tolylene diisocyanate and a compound of formula the method comprises the steps of, dissolving, including mixing and stirring with another polyisocyanate compound under heating, at least one kind selected from the compounds of formulae and, and subsequently reacting at least one kind selected from the compounds of formulae and with the polythiol compound. (i) 4,4'-diphenylmethane diisocyanate and a compound of formula and (ii) tolylene diisocyanate and a compound of formula the method comprises the steps of, dissolving, including mixing and stirring with another polyisocyanate compound under heating, at least one kind selected from the compounds of formulae and, and subsequently reacting at least one kind selected from the compounds of formulae and with the polythiol compound. dissolving, including mixing and stirring with another polyisocyanate compound under heating, at least one kind selected from the compounds of formulae and, and subsequently reacting at least one kind selected from the compounds of formulae and with the polythiol compound.
A vibration apparatus, comprising: a vibration plate; a vibration generator including a vibration structure configured to vibrate the vibration plate; and a connection member between the vibration plate and the vibration generator, wherein the connection member comprises: a first connection member overlapping the vibration structure; and a second connection member surrounding the first connection member, and an elastic modulus of the first connection member is greater than an elastic modulus of the second connection member; characterized in that: the second connection member is disposed not to overlap the vibration structure. a vibration plate; a vibration generator including a vibration structure configured to vibrate the vibration plate; and a connection member between the vibration plate and the vibration generator, wherein the connection member comprises: a first connection member overlapping the vibration structure; and a second connection member surrounding the first connection member, and an elastic modulus of the first connection member is greater than an elastic modulus of the second connection member; characterized in that: the second connection member is disposed not to overlap the vibration structure. a first connection member overlapping the vibration structure; and a second connection member surrounding the first connection member, and an elastic modulus of the first connection member is greater than an elastic modulus of the second connection member; characterized in that: the second connection member is disposed not to overlap the vibration structure.
A fluid release valve suitable for regulating a flow of fluid from a fluid reservoir, said fluid release valve comprising a body member (185, 400) including: (i) an inlet, and (ii) an outlet in fluid communication with the inlet via a flow passage (187,419); (iii) a fluid permeable membrane extending across the flow passage to restrict the flow of fluid between said inlet and outlet; and (iv) an impervious flow path restrictor (184, 484); characterized wherein the flow path restrictor and the membrane are configured and adapted operationally to interact with each other to allow the flow of fluid along the flow path as a function of the quantity of fluid in the fluid reservoir. (i) an inlet, and (ii) an outlet in fluid communication with the inlet via a flow passage (187,419); (iii) a fluid permeable membrane extending across the flow passage to restrict the flow of fluid between said inlet and outlet; and (iv) an impervious flow path restrictor (184, 484);
A hands-free system for opening a trunk, comprising: a trunk antenna disposed at the trunk of a vehicle and configured to transmit a sensing signal or an authentication signal; a plurality of smart keys each housing an ID configured to: transmit a sensing response signal or an authentication response signal, in response to receiving a sensing signal or an authentication signal from the trunk antenna; receive and store a hands-free function setting; and transmit the sensing response signal with function setting information when the hands-free function is set; a receiving antenna configured to receive a sensing response signal or an authentication response signal from the smart keys; and a controller configured to: transmit an authentication signal via the trunk antenna, when the trunk antenna transmits a sensing signal during a predetermined period and the receiving antenna receives a sensing response signal that includes function setting information a predetermined number of times; perform authentication when the receiving antenna receives an authentication response signal; and output a trunk opening signal, when the authentication is allowed, wherein information on the IDs is included in said sensing response signal or said authentication response signal. a trunk antenna disposed at the trunk of a vehicle and configured to transmit a sensing signal or an authentication signal; a plurality of smart keys each housing an ID configured to: transmit a sensing response signal or an authentication response signal, in response to receiving a sensing signal or an authentication signal from the trunk antenna; receive and store a hands-free function setting; and transmit the sensing response signal with function setting information when the hands-free function is set; a receiving antenna configured to receive a sensing response signal or an authentication response signal from the smart keys; and a controller configured to: transmit a sensing response signal or an authentication response signal, in response to receiving a sensing signal or an authentication signal from the trunk antenna; receive and store a hands-free function setting; and transmit the sensing response signal with function setting information when the hands-free function is set; a receiving antenna configured to receive a sensing response signal or an authentication response signal from the smart keys; and a controller configured to: transmit an authentication signal via the trunk antenna, when the trunk antenna transmits a sensing signal during a predetermined period and the receiving antenna receives a sensing response signal that includes function setting information a predetermined number of times; perform authentication when the receiving antenna receives an authentication response signal; and output a trunk opening signal, when the authentication is allowed, wherein information on the IDs is included in said sensing response signal or said authentication response signal.
A process for producing an arylthionocarboxylic acid ester of formula: R-C(=S)-O-Ar wherein Ar is optionally substituted aryl, and R is aryl or cycloalkyl, each optionally substituted; comprising reacting a halogenated thiocarbonyl compound of formula: X-C(=S)-O-Ar wherein Ar is as defined above and X is halogen, with a Grignard compound of the formula R-MgY wherein R is as defined above and Y is halogen, in the presence of at least one component selected from trivalent iron compounds, monovalent copper compounds, divalent copper compounds, divalent nickel compounds, divalent zinc compounds, and divalent cobalt compounds.