mhurhangee/ep-ind-claims huggingface dataset:
A stationary life-saving unit launcher for firing a life-saving unit such that the life-saving unit reaches a distant target point, the launcher comprising: a base; a compressed gas tank mounted to an upper portion of the base and supplying compressed gas; a frame mounted above the base by being spaced apart by a predetermined distance therefrom; and a launch unit mounted to the frame and firing the life-saving unit by using an impact force of the compressed gas supplied from the compressed gas tank, an upper cover covering an upper circumference of the frame, a controller, and a sensor, characterized in that the launch unit is capable of firing a projectile without a loading motion for firing the life-saving unit after mounting thereof, wherein when opening of the upper cover of the launcher or when firing, the sensor is configured to detect the opening or the firing and then to transmit a detection signal of the opening of the upper cover or of the firing to the controller, and wherein the controller is configured to transmit accident information to a police department server, a fire department server, and a local government server such that follow-up measures are efficiently taken. a base; a compressed gas tank mounted to an upper portion of the base and supplying compressed gas; a frame mounted above the base by being spaced apart by a predetermined distance therefrom; and a launch unit mounted to the frame and firing the life-saving unit by using an impact force of the compressed gas supplied from the compressed gas tank, an upper cover covering an upper circumference of the frame, a controller, and a sensor, characterized in that the launch unit is capable of firing a projectile without a loading motion for firing the life-saving unit after mounting thereof, wherein when opening of the upper cover of the launcher or when firing, the sensor is configured to detect the opening or the firing and then to transmit a detection signal of the opening of the upper cover or of the firing to the controller, and wherein the controller is configured to transmit accident information to a police department server, a fire department server, and a local government server such that follow-up measures are efficiently taken.
A blocked isocyanate in which an isocyanate group of a hydrophilic group-containing polyisocyanate being a reaction product of a polyisocyanate and a polyoxyethylene compound is blocked by a blocking agent, wherein the polyisocyanate includes an aliphatic polyisocyanate and/or an araliphatic polyisocyanate, a number average molecular weight of the polyoxyethylene compound, as determined by gel permeation chromatography, is 400 or more and 800 or less, the blocking agent includes a piperidone-based compound shown by the following general formula, and the oxyethylene group content in the hydrophilic group-containing polyisocyanate is 1.0% by mass or more and 35% by mass or less. In general formula, each of R 1 to R 4 represents an alkyl group having 1 to 4 carbon atoms. R 1 to R 4 may be the same or different from each other. Each of R 5 to R 8 represents an alkyl group having 1 to 4 carbon atoms or a hydrogen atom. R 5 to R 8 may be the same or different from each other. the polyisocyanate includes an aliphatic polyisocyanate and/or an araliphatic polyisocyanate, a number average molecular weight of the polyoxyethylene compound, as determined by gel permeation chromatography, is 400 or more and 800 or less, the blocking agent includes a piperidone-based compound shown by the following general formula, and the oxyethylene group content in the hydrophilic group-containing polyisocyanate is 1.0% by mass or more and 35% by mass or less. In general formula, each of R 1 to R 4 represents an alkyl group having 1 to 4 carbon atoms. R 1 to R 4 may be the same or different from each other. Each of R 5 to R 8 represents an alkyl group having 1 to 4 carbon atoms or a hydrogen atom. R 5 to R 8 may be the same or different from each other.
Sensor system for capacitively measuring the fill level of a liquid medium in a container, comprising a receptacle, which is provided with two contact regions for the contact with an exterior surface of the received container, and with at least one level detection electrode (C 1, C 2, C 11, C 12, C 21, C 22) disposed in each of the contact regions for capacitively detecting the liquid level in the container, characterised in that the sensor system is configured to determine a complex total impedance Z tot via the level detection electrodes and to obtain variations over time in the complex total impedance Z tot via a demodulator, and to be used in an evaluation unit together with the complex total impedance Z tot for determination of the level detection, in order to detect a leak in a pipe system that is connected in a pressure-tight manner to the container.
A structure comprising: a pre-cast concrete column section; and a pre-cast concrete beam section, wherein one of the pre-cast concrete column section or the pre-cast concrete beam section includes an embedded first assembly, wherein a threaded rod is contained within the embedded first assembly, and the other of the pre-cast concrete column section or the pre-cast concrete beam section includes an embedded second assembly having an aperture configured to receive the threaded rod; and wherein the threaded rod is configured to be rotatable within the embedded first assembly to extend a portion of the threaded rod out of the embedded first assembly toward the aperture of the embedded second assembly. a pre-cast concrete column section; and a pre-cast concrete beam section, wherein one of the pre-cast concrete column section or the pre-cast concrete beam section includes an embedded first assembly, wherein a threaded rod is contained within the embedded first assembly, and the other of the pre-cast concrete column section or the pre-cast concrete beam section includes an embedded second assembly having an aperture configured to receive the threaded rod; and wherein the threaded rod is configured to be rotatable within the embedded first assembly to extend a portion of the threaded rod out of the embedded first assembly toward the aperture of the embedded second assembly.
A secondary battery module, comprising: a plurality of secondary battery cells; a case configured to accommodate the plurality of secondary battery cells and having a case body, a placing groove and an insert opening; and a label coupled to the case and including a label body and a handle unit, wherein the case body has a placing groove in which the label is placed, the insert opening includes a first opening and a second opening, the first opening is formed at the upper side of the case body and the second opening is formed at the side surface of the case body, the first opening and the second opening communicate with each other, and the handle unit respectively extends from both ends of the label body by a predetermined length to be inserted into the insert opening. a plurality of secondary battery cells; a case configured to accommodate the plurality of secondary battery cells and having a case body, a placing groove and an insert opening; and a label coupled to the case and including a label body and a handle unit, wherein the case body has a placing groove in which the label is placed, the insert opening includes a first opening and a second opening, the first opening is formed at the upper side of the case body and the second opening is formed at the side surface of the case body, the first opening and the second opening communicate with each other, and the handle unit respectively extends from both ends of the label body by a predetermined length to be inserted into the insert opening.
An electrical connecting device, comprising: a base; a locking member (230; 330; 430) rotatably disposed on the base and configured to rotate about an axis to a locked position along a first rotational direction and to an unlocked position along a second rotational direction opposite to the first rotational direction, wherein an engaging portion is provided at a peripheral edge of the locking member (230; 330; 430); a linkage (240; 440) rotatably disposed on the base and comprising an abutting portion configured to abut against the peripheral edge, wherein when the locking member (230; 330; 430) is rotated to the locked position, the abutting portion is moved to and is engaged with the engaging portion accompanied with a rotation of the linkage (240; 440); a detector disposed on the base and configured to detect the engagement between the abutting portion and the engaging portion. a base; a locking member (230; 330; 430) rotatably disposed on the base and configured to rotate about an axis to a locked position along a first rotational direction and to an unlocked position along a second rotational direction opposite to the first rotational direction, wherein an engaging portion is provided at a peripheral edge of the locking member (230; 330; 430); a linkage (240; 440) rotatably disposed on the base and comprising an abutting portion configured to abut against the peripheral edge, wherein when the locking member (230; 330; 430) is rotated to the locked position, the abutting portion is moved to and is engaged with the engaging portion accompanied with a rotation of the linkage (240; 440); a detector disposed on the base and configured to detect the engagement between the abutting portion and the engaging portion.
A method of detecting compromise of at least one analyte reagent upon reaction with a test sample by a reflectance spectroscopic diagnostic instrument, the method comprising the steps of: (a) measuring a reflectance of light across a spectrum of wavelengths for at least one test area on a reagent sample media that has been reacted with a test sample, the reagent sample media having at least one test area disposed thereon, wherein the at least one test area contains an analyte reagent configured to react with the test sample and to change color according to an amount of analyte present in the test sample, and wherein the measurements are performed by a reflectance spectroscopic diagnostic instrument in which the reagent sample media has been disposed and using a color model; (b) analyzing the measurements obtained in (a) to calculate the three factors of color of a three dimensional color space for the at least one test area; (c) comparing the three calculated factors of color for the at least one test area to a known range of expected color results for the at least one test area; and (d) determining that at least one analyte reagent has been compromised by the test sample if at least one calculated factor of the three calculated factors of color for the at least one test area falls outside the known range for said factor; and wherein steps (a)-(d) are performed by the reflectance spectroscopic diagnostic instrument. (a) measuring a reflectance of light across a spectrum of wavelengths for at least one test area on a reagent sample media that has been reacted with a test sample, the reagent sample media having at least one test area disposed thereon, wherein the at least one test area contains an analyte reagent configured to react with the test sample and to change color according to an amount of analyte present in the test sample, and wherein the measurements are performed by a reflectance spectroscopic diagnostic instrument in which the reagent sample media has been disposed and using a color model; (b) analyzing the measurements obtained in (a) to calculate the three factors of color of a three dimensional color space for the at least one test area; (c) comparing the three calculated factors of color for the at least one test area to a known range of expected color results for the at least one test area; and (d) determining that at least one analyte reagent has been compromised by the test sample if at least one calculated factor of the three calculated factors of color for the at least one test area falls outside the known range for said factor; and
A method comprising: rotating a well logging tool in a subterranean wellbore penetrating a subsurface formation; causing the logging tool to make corresponding logging measurements while rotating in the wellbore and processing the logging measurements to generate an azimuthally substantially continuous wellbore image; accepting as input to a processor the azimuthally substantially continuous wellbore image; in the processor, extracting contours from the substantially azimuthally continuous wellbore image; in the processor, grouping the extracted contours into clusters corresponding to a single transition zone, wherein extracted contours that are sufficiently close to a transition zone are grouped into a single cluster and their Fourier coefficients are averaged to derive a single smooth contour demarcating a boundary of a feature; in the processor, mapping the clustered contours having a measured depth extent that is greater than a length-scale over which a dip of the subsurface formation varies to a three-dimensional space corresponding to a coordinate system associated with the well; and in the processor, calculating a dip and azimuth of a layer boundary of the subsurface formation from the mapped clustered contours and at least one of storing and displaying the calculated dip and azimuth. rotating a well logging tool in a subterranean wellbore penetrating a subsurface formation; causing the logging tool to make corresponding logging measurements while rotating in the wellbore and processing the logging measurements to generate an azimuthally substantially continuous wellbore image; accepting as input to a processor the azimuthally substantially continuous wellbore image; in the processor, extracting contours from the substantially azimuthally continuous wellbore image; in the processor, grouping the extracted contours into clusters corresponding to a single transition zone, wherein extracted contours that are sufficiently close to a transition zone are grouped into a single cluster and their Fourier coefficients are averaged to derive a single smooth contour demarcating a boundary of a feature; in the processor, mapping the clustered contours having a measured depth extent that is greater than a length-scale over which a dip of the subsurface formation varies to a three-dimensional space corresponding to a coordinate system associated with the well; and in the processor, calculating a dip and azimuth of a layer boundary of the subsurface formation from the mapped clustered contours and at least one of storing and displaying the calculated dip and azimuth.
A system for inserting and securing, through a suprapatellar region of a leg, a nail into a medullary canal of a bone, the system comprising: a flexible sleeve configured to be partially inserted in the leg, the flexible sleeve defining a leading end and a trailing end spaced apart from the leading end along a first axis, the flexible sleeve defining a first cannulation extending along the first axis between the leading and trailing ends (42, 44), the first cannulation sized to receive therethrough at least the intramedullary nail, wherein the flexible sleeve is configured to flex so as to change a shape of the first axis from a first configuration to a second configuration, wherein the second configuration is different than the first configuration; wherein the intramedullary nail is insertable through the flexible sleeve and into the medullary canal, characterized in that the system further comprises a retaining member configured to support at least a portion of the flexible sleeve in the leg, wherein the retaining member is configured to position the flexible sleeve through the suprapatellar region of the leg such that the flexible sleeve leading end is aligned with a proximal end of the bone. a flexible sleeve configured to be partially inserted in the leg, the flexible sleeve defining a leading end and a trailing end spaced apart from the leading end along a first axis, the flexible sleeve defining a first cannulation extending along the first axis between the leading and trailing ends (42, 44), the first cannulation sized to receive therethrough at least the intramedullary nail, wherein the flexible sleeve is configured to flex so as to change a shape of the first axis from a first configuration to a second configuration, wherein the second configuration is different than the first configuration; wherein the intramedullary nail is insertable through the flexible sleeve and into the medullary canal, characterized in that the system further comprises a retaining member configured to support at least a portion of the flexible sleeve in the leg, wherein the retaining member is configured to position the flexible sleeve through the suprapatellar region of the leg such that the flexible sleeve leading end is aligned with a proximal end of the bone.
A method for preparing a hydrogel comprising silico-metallic mineral particles of the formula (Si x (Si-A) 1-x) 4 M 3 O 11 ·n'H 2 O, in which: - x is a real number in the range [0.75; 1], - A denotes a group selected from methyl and hydrocarbon groups comprising at least one heteroatom, - M is a metal selected from the group consisting of magnesium, cobalt, zinc, copper, manganese, iron, nickel and chromium, - n' refers to a number of water molecules associated with said hydrogel, wherein a coprecipitation reaction is carried out in an aqueous medium between: - at least one metal salt of said metal M, - sodium metasilicate, Na 2 OSiO 2, and - at least one water-soluble oxysilane of formula: in which R1, R2 and R3 are identical or different and are selected from hydrogen and linear alkyl groups comprising 1 to 3 carbon atoms. - x is a real number in the range [0.75; 1], - A denotes a group selected from methyl and hydrocarbon groups comprising at least one heteroatom, - M is a metal selected from the group consisting of magnesium, cobalt, zinc, copper, manganese, iron, nickel and chromium, - n' refers to a number of water molecules associated with said hydrogel, - at least one metal salt of said metal M, - sodium metasilicate, Na 2 OSiO 2, and - at least one water-soluble oxysilane of formula: in which R1, R2 and R3 are identical or different and are selected from hydrogen and linear alkyl groups comprising 1 to 3 carbon atoms.
A connector (11, 11A, 41, 71) that is configured to be mounted on a mounting object and fitted to a counter connector (12, 42, 72) in which a counter first contact (14, 44, 74) and a counter second contact (15, 45, 75) are retained by a housing (13, 43, 73) having rigidity and an insulating property, the connector comprising: a first contact (25, 55, 85) and a second contact (35, 65, 95) that are spaced from each other in a predetermined direction and are configured to be respectively fitted to the counter first contact and the counter second contact when the connector is fitted to the counter connector; and a first sheet member (22, 52, 82) that has flexibility and an insulating property and is stretchable at least in the predetermined direction, a base end of the first sheet member in the predetermined direction being configured to be mounted on the mounting object at a position opposite from the second contact with respect to the first contact, and a distal end of the first sheet member in the predetermined direction having the first contact retained therein, wherein the second contact (35, 65, 95) is configured to be retained by the mounting object via a second sheet member (32, 62, 92) having flexibility and an insulating property or directly retained by the mounting object, and with at least the first sheet member being elastically stretched in the predetermined direction, the connector is fitted to the counter connector, and due to a shrinking force generated at the first sheet member, the first contact and the second contact are electrically connected to the counter first contact and the counter second contact, respectively. a first contact (25, 55, 85) and a second contact (35, 65, 95) that are spaced from each other in a predetermined direction and are configured to be respectively fitted to the counter first contact and the counter second contact when the connector is fitted to the counter connector; and a first sheet member (22, 52, 82) that has flexibility and an insulating property and is stretchable at least in the predetermined direction, a base end of the first sheet member in the predetermined direction being configured to be mounted on the mounting object at a position opposite from the second contact with respect to the first contact, and a distal end of the first sheet member in the predetermined direction having the first contact retained therein, wherein the second contact (35, 65, 95) is configured to be retained by the mounting object via a second sheet member (32, 62, 92) having flexibility and an insulating property or directly retained by the mounting object, and with at least the first sheet member being elastically stretched in the predetermined direction, the connector is fitted to the counter connector, and due to a shrinking force generated at the first sheet member, the first contact and the second contact are electrically connected to the counter first contact and the counter second contact, respectively.
A method for implementing a high-efficient configurable on-chip interconnection system, comprising: setting, by master devices in an interconnection system, bit widths of bus Identifiers, IDs, of the master devices, the bit widths of the bus IDs of the master devices being identical; and in a storage access process, interacting, by the master devices via interconnection matrices only, with slave devices according to the bus IDs; characterized in that: setting, by master devices, bit widths of bus IDs of the master devices comprises: calculating, by master devices, bit widths of bus IDs of the master devices according to the number of all the master devices in the interconnection system and the number of types of requests that can be sent by each of all the master devices; wherein the types of the requests that can be sent by the master devices comprise one or more of the following: bit width variability in a data transmission process, cacheability, a security level of access to a storage space, and a type of the accessed storage space. setting, by master devices in an interconnection system, bit widths of bus Identifiers, IDs, of the master devices, the bit widths of the bus IDs of the master devices being identical; and in a storage access process, interacting, by the master devices via interconnection matrices only, with slave devices according to the bus IDs; characterized in that: setting, by master devices, bit widths of bus IDs of the master devices comprises: calculating, by master devices, bit widths of bus IDs of the master devices according to the number of all the master devices in the interconnection system and the number of types of requests that can be sent by each of all the master devices; wherein the types of the requests that can be sent by the master devices comprise one or more of the following: bit width variability in a data transmission process, cacheability, a security level of access to a storage space, and a type of the accessed storage space. calculating, by master devices, bit widths of bus IDs of the master devices according to the number of all the master devices in the interconnection system and the number of types of requests that can be sent by each of all the master devices; wherein the types of the requests that can be sent by the master devices comprise one or more of the following: bit width variability in a data transmission process, cacheability, a security level of access to a storage space, and a type of the accessed storage space.