Abstract: A signal analysis device includes a synchronization data generation unit, a synchronization correction value calculation unit, and a correction unit. The synchronization unit outputs an A/D-converted correction signal as first synchronization data. The first synchronization data is associated with time based on the timing of a trigger signal input from the outside. The synchronization correction value calculation unit calculates, as a first synchronization correction value, an amplitude ratio, a phase difference, and a time difference between the first synchronization data and second synchronization data input from the outside on the basis of the first synchronization data and the second synchronization data. The correction unit corrects the amplitude, phase, and timing of the RF signal output from the object to be measured, on the basis of the first synchronization correction value or a second synchronization correction value input from the outside.

Abstract: To provide a colored glass plate which, despite the content of expensive cerium controlled to be low, simultaneously satisfies low solar transmittance, high visible light transmittance and low UV transmittance, while transmitted light has a green color tone. The colored glass plate comprises, as represented by mass percentage based on oxides, SiO2: from 65 to 75%, Al2O3: from 0 to 6%, MgO: from 0 to 6%, CaO: from 5 to 15%, total iron calculated as Fe2O3: from 0.3 to 1.2%, total titanium calculated as TiO2: from 0.2 to 1.1%, total vanadium calculated as V2O5: from 0.02 to 0.3%, and total cerium calculated as CeO2: from 0.01 to 0.5%, and contains substantially no cobalt, chromium or manganese.

Abstract: To provide a colored glass plate which, despite containing substantially no expensive cerium, simultaneously satisfies low solar transmittance, high visible light transmittance and low UV transmittance, while transmitted light has a green color tone. The colored glass plate comprises, as represented by mass percentage based on oxides, SiO2: from 65 to 75%, Al2O3: from 0 to 6%, MgO: from 2 to 6%, CaO: from 5 to 15%, total iron calculated as Fe2O3: from 0.3 to 1.2%, total titanium calculated as TiO2: from 0.2 to 1.1%, and total vanadium calculated as V2O5: from 0.02 to 0.3%, and contains substantially no cerium, cobalt, chromium or manganese.

Abstract: To provide a colored glass plate which, despite containing substantially no expensive cerium, simultaneously satisfies low solar transmittance, high visible light transmittance and low UV transmittance, while transmitted light has a green color tone, The colored glass plate comprises, as represented by mass percentage based on oxides, SiO2: from 65 to 75%, Al2O3: from 0 to 6%, MgO: at least 0% and less than 2%, CaO: from 5 to 15%, total iron calculated as Fe2O3: from 0.3 to 1.2%, total titanium calculated as TiO2: from 0.2 to 1.1%, and total vanadium calculated as V2O5: from 0.02 to 0.3%, and contains substantially no cerium, cobalt, chromium or manganese.

Abstract: To provide a heat-absorbing glass plate which satisfies both low solar transmittance and high visible light transmittance, presents a green color as transmitted light and contains a small number of coloring components. The heat-absorbing glass plate of the present invention has a solar transmittance of at most 42% calculated as 4 mm thickness, has a visible light transmittance (by illuminant A, 2° visual field) of at least 70% calculated as 4 mm thickness, and provides a transmitted light having a dominant wavelength of from 492 to 520 nm, and it is made of soda lime silica glass having substantially the following composition, as represented by mass % based on oxides. SiO2: 65 to 75%, Al2O3: more than 3% and at most 6%, MgO: at least 0% and less than 2%, CaO: 7 to 10%, total iron as calculated as Fe2O3: 0.45 to 0.65%, and TiO2: 0.2 to 0.

Abstract: A cover glass includes a soda lime silica glass including SiO2, MgO, CaO, Na2O and Al2O3. The SiO2 content in the silica glass is in the range of 60 wt % to 71.1 wt %, the MgO content in the silica glass in the range of 4.5 wt % to 15 wt %, the CaO content in the silica glass in the range of 0.5 wt % to 10 wt %, the Na2O content in the silica glass in the range of 10-20 wt %, the Al2O3 content in the silica glass in the range of 0-10.3 wt %, the silica glass has the ratio [MgO]/[CaO] of larger than 1 and the Q value of 20 or larger, and the Q value is obtained by formula, Q =([MgO]/[CaO])X([CaO]+[Na2O]?[Al2O3]), where [MgO] is the MgO content, [CaO] is the CaO content, [Na2O] is the Na2O content, and [Al2O3] is the Al2O3 content by mass percentage based on oxides.

Abstract: There is provided a coating composition that can form a coating film excellent in both weather fastness and hydrophilifiability. The coating composition includes: a Si-containing resin; photocatalyst particles; and an aqueous medium, the Si-containing resin and the photocatalyst particles being dispersed in the aqueous medium, wherein the Si-containing resin includes a polysiloxane segment, preferably exhibits at least one spectral peak at a position of 120° C. or more to 180° C. or less in a curve of loss tangent (tan ?) against temperature as measured at a frequency of 1 Hz with a solid viscoelasticity measuring apparatus based on JIS K 7244-4, and has a particle diameter that is not more than 1/15 of the particle diameter of the photocatalyst particles.

Abstract: A metal-resin composite structure (106) is obtained by bonding a metal member (103) and a resin member (105) formed of a thermoplastic resin composition (P) to each other. Regarding six linear portions in total on a surface (110) of the metal member (103) including three arbitrary linear portions which are parallel to each other and another three arbitrary linear portions which are perpendicular to the former three linear portions, a surface roughness measured according to JIS B0601 (corresponding international standard: ISO4287) satisfies the following requirements (1) and (2) at the same time: (1) material ratio of the roughness profile (Rmr) of one or more linear portions at a cutting level of 20% and an evaluation length of 4 mm are lower than or equal to 30%; and (2) ten point average roughnesses (Rz) of all the linear portions at an evaluation length of 4 mm are greater than 2 ?m.

Abstract: An electrolyte for non-aqueous electrolyte battery containing at least one compound selected from the group consisting of lithium difluoro(bis(oxalato))phosphate, lithium tetrafluoro(oxalato)phosphate and lithium difluoro(oxalato)borate as a first compound and at least one siloxane compound represented by the general formula (1) or the general formula (2) as a second compound in the electrolyte is disclosed. In addition to the improvement of initial characteristic, this electrolyte shows a tendency that storage stability, low temperature characteristic, etc. are superior, and exhibits well-balanced, superior, performances as a whole battery.

Abstract: To provide tempered glass which is thin and can be produced by common air-quench tempering without requiring a special production facility, and untreated glass for such tempered glass. The tempered glass is obtainable via a heating step and a cooling step. The heating step is a step of applying heat treatment to glass to be treated, of which the glass transition point is from 500 to 600° C. and the maximum value of the thermal expansion coefficient (?max) between the glass transition point and the yield point is at least 430×10?7/° C. The cooling step is a step of applying air-quenching treatment to the glass to be treated.

Abstract: The present invention provides an electrolytic solution for a nonaqueous electrolyte battery and a nonaqueous electrolyte battery having excellent cycle characteristics and high-temperature storage characteristics without causing hydrolysis of a fluorine-containing lithium salt, such as LiPF6, contained as a solute and containing a less amount of free fluorine ions, as well as a method of producing the electrolytic solution for a nonaqueous electrolyte battery.

Abstract: What is disclosed is a non-aqueous electrolyte for non-aqueous electrolyte battery including a non-aqueous solvent and at least lithium hexafluorophosphate as a solute. This electrolyte is characterized by containing at least one siloxane compound represented by the general formula (1) or the general formula (2). This electrolyte has a storage stability which is improved than electrolytes prepared by adding conventional siloxane compounds.

Abstract: The signal analysis device includes a synchronization data generation unit 19a that outputs an A/D-converted correction signal as first synchronization data which is associated with time based on the timing of a trigger signal input from the outside, a synchronization correction value calculation unit 19c that calculates, as a first synchronization correction value, an amplitude ratio, a phase difference, and a time difference between the first synchronization data and second synchronization data input from the outside on the basis of the first synchronization data and the second synchronization data, and a correction unit 19d that corrects the amplitude, phase, and timing of the RF signal output from the object to be measured, on the basis of the first synchronization correction value or a second synchronization correction value input from the outside.

Abstract: A control method comprising: a first step of detecting, by the server module, a failure in the first interface; a second step of executing, by the server module, given recovery processing when a failure is detected in the first interface; a third step of using, by the coupling module, the first end point to detect a failure in the first interface and output a failure notification; a fourth step of converting, by the coupling module, the failure notification into a notification of disconnection of the first interface, and transmitting the disconnection notification generated by the conversion to the storage module from the second end point; and a fifth step of disengaging, by the storage module, coupling to the server module when the disconnection notification is received from the coupling module.

Abstract: To provide glass having a favorable color tone, and its production process. Glass comprising, as represented by mass percentage based on oxides, at least 60% and at most 75% of SiO2, at least 8% and at most 20% of Na2O, at least 4.5% of MgO, at least 1% and at most 10% of CaO, and at least 0.01% and at most 0.5% of Er2O3.

Abstract: To provide a glass plate which can be made to have higher Te than conventional glass plates when its iron content is substantially the same as the conventional glass plates, to have substantially the same level of Te as conventional glass plates when its iron content is larger than the conventional glass plates, or to have very high Te when its iron content is smaller than conventional glass plates, and which presents good productivity. A glass plate which comprises, as represented by mol percentage based on oxides, SiO2: from 57 to 71%, Al2O3: from 0 to 6%, B2O3: from 0 to 5%, Na2O: from 10 to 16%, MgO: from 7.5 to 19.8%, and CaO: from 1.6 to 11%, provided that S-value represented by MgO+Al2O3+B2O3—Na2O (as represented by mol percentage) is from ?10 to 10.5%, and the ratio of the content of MgO, as represented by mol percentage based on oxide, to the content of CaO, as represented by mol percentage based on oxide, ([MgO]/[CaO]), is from 0.8 to 10.

Abstract: To provide a colored glass plate which, despite the content of expensive cerium controlled to be low, simultaneously satisfies low solar transmittance, high visible light transmittance and low UV transmittance, while transmitted light has a green color tone. The colored glass plate comprises, as represented by mass percentage based on oxides, SiO2: from 65 to 75%, Al2O3: from 0 to 6%, MgO: from 0 to 6%, CaO: from 5 to 15%, total iron calculated as Fe2O3: from 0.3 to 1.2%, total titanium calculated as TiO2: from 0.2 to 1.1%, total vanadium calculated as V2O5: from 0.02 to 0.3%, and total cerium calculated as CeO2: from 0.01 to 0.5%, and contains substantially no cobalt, chromium or manganese.

Abstract: A cover glass includes a soda lime silica glass including SiO2, MgO, CaO, Na2O and Al2O3. The SiO2 content in the silica glass is in the range of 60 wt % to 71.1 wt %, the MgO content in the silica glass in the range of 4.5 wt % to 15 wt %, the CaO content in the silica glass in the range of 0.5 wt % to 10 wt %, the Na2O content in the silica glass in the range of 10-20 wt %, the Al2O3 content in the silica glass in the range of 0-10.3 wt %, the silica glass has the ratio [MgO]/[CaO] of larger than 1 and the Q value of 20 or larger, and the Q value is obtained by formula, Q=([MgO]/[CaO])X([CaO]+[Na2O]—[Al2O3]), where [MgO] is the MgO content, [CaO] is the CaO content, [Na2O] is the Na2O content, and [Al2O3] is the Al2O3 content by mass percentage based on oxides.

Abstract: A method for producing a glass substrate includes (a) a step of forming molten glass having a temperature T2 less than or equal to 1500° C. on molten tin having an iron concentration greater than or equal to 100 ppm to produce a glass ribbon having a temperature T4 less than or equal to 1100° C. and a logarithm log ? greater than or equal to 8.8, and (b) a step of cooling the glass ribbon to room temperature to produce the glass substrate. The temperature T2 represents a temperature when a logarithm of a viscosity ? (dPa·s) is 2, the temperature T4 represents a temperature when the logarithm of the viscosity ? (dPa·s) is 4, and the logarithm log ? represents a logarithm of a volume resistivity ? (?·cm) at 150° C.

Abstract: To provide a colored glass plate which, despite containing substantially no expensive cerium, simultaneously satisfies low solar transmittance, high visible light transmittance and low UV transmittance, while transmitted light has a green color tone. The colored glass plate comprises, as represented by mass percentage based on oxides, SiO2: from 65 to 75%, Al2O3: from 0 to 6%, MgO: from 2 to 6%, CaO: from 5 to 15%, total iron calculated as Fe2O3: from 0.3 to 1.2%, total titanium calculated as TiO2: from 0.2 to 1.1%, and total vanadium calculated as V2O5: from 0.02 to 0.3%, and contains substantially no cerium, cobalt, chromium or manganese.