Abstract: An API adapter generation device include a conversion rule calculation unit (16) configured to acquire a data model of an orchestrator (210) and an API specification to be managed and perform schema matching on the basis of a data schema of the orchestrator and a data schema of the API specification to calculate a model conversion rule, a call logic unit generation unit (19) configured to rewrite a source code of an API call logic unit 232 describing an API adapter execution logic on the basis of the model conversion rule, and an API adapter generation unit (21) configured to generate an API adapter to be managed on the basis of the API call logic unit in which the source code is rewritten.

Abstract: A safety operation method includes detecting a steam pressure inside a high-pressure casing of the high-pressure part and a steam pressure inside a low-pressure casing of the low-pressure part; obtaining a low-pressure casing limit pressure as a reference corresponding to a pressure of the high-pressure casing in each detection, on a basis of a pressure correlation line expressing a prescribed special relation between preset high-pressure casing pressure and low-pressure casing pressure of the extraction steam turbine; comparing the low-pressure casing limit pressure with the detected pressure of the low-pressure casing; and forcibly throttling an opening of the main steam control valve to reduce the flow rate of steam flowing into the high-pressure part, in a state in which the extraction control valves continue controlling an operation of the extraction steam pressure, when the detected pressure of the low-pressure casing is judged to be higher than the low-pressure casing limit pressure.

Abstract: A safety operation method includes detecting a steam pressure inside a high-pressure casing of the high-pressure part and a steam pressure inside a low-pressure casing of the low-pressure part; obtaining a low-pressure casing limit pressure as a reference corresponding to a pressure of the high-pressure casing in each detection, on a basis of a pressure correlation line expressing a prescribed special relation between preset high-pressure casing pressure and low-pressure casing pressure of the extraction steam turbine; comparing the low-pressure casing limit pressure with the detected pressure of the low-pressure casing; and forcibly throttling an opening of the main steam control valve to reduce the flow rate of steam flowing into the high-pressure part, in a state in which the extraction control valves continue controlling an operation of the extraction steam pressure, when the detected pressure of the low-pressure casing is judged to be higher than the low-pressure casing limit pressure.

Abstract: An anode 20 of an electrochemical device 10 is connected to the cathode of a battery 30, and a cathode 22 of the electrochemical device 10 is connected to the anode of the battery. An electrolyte layer 24 containing electrolytes is arranged between the anode 20 and the cathode 22. Electrolyte layer 24 is formed by alternately laminating two types of electrolytes formed in the shape of plates. A first electrolyte is a proton conductor 26, and a second electrolyte is an oxygen ion conductor 28. A purification apparatus 120 includes a plurality of electrochemical devices 10.

Abstract: An apparatus corrects a position coordinate measured by a GPS receiver. Road data representing a position coordinate of a constructed road is included. Locus data representing a plurality of position coordinates of the GPS receiver during a past specified period is generated based on a position coordinate acquired. A road section traveled by the GPS receiver during the past specified period is estimated based on road data stored and a position coordinate acquired. A bias error of a position coordinate measured by the GPS receiver is estimated based on position coordinates at a plurality of points in a road section estimated and position coordinates at a plurality of points represented by the locus data. A position coordinate measured by the GPS receiver is corrected based on a bias error estimated and outputted.

Abstract: The exhaust gas purification apparatus includes an oxidation catalyst, a first selective catalytic reduction catalyst, a second selective catalytic reduction catalyst and a urea water supply device. The oxidation catalyst is provided in a passage through which exhaust gas flows. The first selective catalytic reduction catalyst is located in the passage downstream of the oxidation catalyst. The second selective catalytic reduction catalyst is located in the passage downstream of the first selective catalytic reduction catalyst and operable to adsorb more ammonia than the first selective catalytic reduction catalyst. The urea water supply device is provided for supplying urea water to the passage upstream of the first selective catalytic reduction catalyst.

Abstract: An exhaust gas purification apparatus includes an exhaust gas passage, a first oxidation catalyst, a selective catalytic reduction catalyst, an oxidation-reduction catalyst and a urea water supply device. Exhaust gas is flowed through the first oxidation catalyst. The first oxidation catalyst is disposed in the exhaust gas passage. The selective catalytic reduction catalyst is disposed downstream of the first oxidation catalyst. The oxidation-reduction catalyst is disposed downstream of the selective catalytic reduction catalyst. The oxidation-reduction catalyst has reducing property and oxidizing property which are influenced by temperature, wherein the oxidizing property of the oxidation-reduction catalyst is greater than the reducing property of the oxidation-reduction catalyst under a temperature that is higher than a temperature under which the reducing property of the oxidation-reduction catalyst is greater than the oxidizing property of the oxidation-reduction catalyst.

Abstract: An exhaust gas purification apparatus includes a first oxidation catalyst provided in a passage through which exhaust gas flows, a particulate matter collecting device provided downstream of the first oxidation catalyst, a selective catalytic reduction catalyst integrally formed with the particulate matter collecting device and having ammonia adsorption property, a second oxidation catalyst integrally formed with the particulate matter collecting device and oxidizing ammonia at a predetermined temperature or higher and a urea water supply device provided upstream of the selective catalytic reduction catalyst for supplying urea water. The urea water supply device supplies urea water only when a temperature of the second oxidation catalyst is below the predetermined temperature.

Abstract: An exhaust gas purification apparatus includes an oxidation catalyst, a selective catalytic reduction catalyst, a first urea water supplying device, a second urea water supplying device and a controller. The oxidation catalyst oxidizes nitrogen monoxide to nitrogen dioxide. The selective catalytic reduction catalyst is disposed downstream of the oxidation catalyst. The first urea water supplying device is disposed upstream of the oxidation catalyst. The second urea water supplying device is disposed downstream of the oxidation catalyst and upstream of the selective catalytic reduction catalyst. The controller controls the supply of urea water to exhaust gas by the first urea water supplying device and the second urea water supplying device according to temperature of the exhaust gas.

Abstract: An exhaust gas purification apparatus includes an oxidation catalyst provided in a passage through which exhaust gas flows, a urea decomposition accelerator, a selective catalytic reduction catalyst provided downstream of the urea decomposition accelerator and a urea water supplying device for supplying urea water to the urea decomposition accelerator. The urea decomposition accelerator is provided downstream end surface of the oxidation catalyst and has at least one of hydrophilic function and hydrolytic catalytic function.

Abstract: The exhaust gas purification apparatus includes an oxidation catalyst, an ammonia adsorption portion, a selective catalytic reduction catalyst and a urea water supply device. The oxidation catalyst is provided in a passage through which exhaust gas flows. The ammonia adsorption portion is located in the passage downstream of the oxidation catalyst with respect to the flow of the exhaust gas and operable to adsorb ammonia. The selective catalytic reduction catalyst is located in the passage downstream of the ammonia adsorption portion. The urea water supply device is provided for supplying urea water to the passage upstream of the selective catalytic reduction catalyst.

Abstract: An exhaust gas purification system includes a casing through which exhaust gas is allowed to flow, an oxidation catalyst provided in the casing, a particulate matter collector located downstream of the oxidation catalyst in the casing as viewed in the direction of exhaust gas flow and spaced apart from the oxidation catalyst to form a space therebetween, an SCR catalyst integrated with the particulate matter collector, and a urea water supply device for supplying urea water to the space between the oxidation catalyst and the particulate matter collector. The casing is for being mounted to an engine assembly.

Abstract: An exhaust gas purification apparatus includes an oxidation catalyst provided in an exhaust gas passage through which exhaust gas flows, a SCR catalyst provided downstream of the oxidation catalyst, a urea water passage that is formed through a urea water pipe and provided in the oxidation catalyst and a urea water supply device provided outside the exhaust gas passage for supplying urea water to the urea water passage. The urea water passage is separated from the oxidation catalyst and led downstream of the oxidation catalyst.

Abstract: An organic EL element that is an electroluminescence element has at least an organic layer held between a pair of electrodes. At least an electrode made of material having a higher volume resistivity, of the pair of electrodes, is formed in a flat form. The organic layer is provided with a plurality of non-light emitting portions. The non-light emitting portions are provided so that a larger number of non-light emitting portions exist per unit area at a position physically closer to the position of a terminal portion at which the electrode made of material having the higher volume resistivity is connected to an external connection terminal. As a result, the level of current passing per unit area is substantially uniform at each position on the element.

Abstract: An exhaust gas purifying system includes an exhaust passage, an oxidation catalyst, a selective catalytic reduction catalyst, a urea water supply device, a first heating mechanism and a controller. The exhaust gas discharged from an internal combustion engine flows through the exhaust passage. The oxidation catalyst for oxidizing nitrogen monoxide contained in the exhaust gas to nitrogen dioxide is disposed in the exhaust passage. The selective catalytic reduction catalyst is disposed downstream of the oxidation catalyst. The urea water supply device supplies urea water into the exhaust passage at the upstream of the selective catalytic reduction catalyst. The first heating mechanism heats the oxidation catalyst. The controller controls the first heating mechanism to adjust the temperature of the oxidation catalyst such that molar ratio between nitrogen monoxide and nitrogen dioxide in the exhaust gas flowing into the selective catalytic reduction catalyst become one to one.

Abstract: An exhaust gas purification system which purifies exhaust gas discharged from an internal combustion engine includes an exhaust pipe, an electrochemical reactor and a cooler. The exhaust gas flows through the exhaust pipe. The electrochemical reactor is mounted to the exhaust pipe and has a polyelectrolyte membrane. The cooler is provided at a position that is upstream of the electrochemical reactor for cooling the exhaust gas.

Abstract: An exhaust gas purifying apparatus includes an exhaust pipe, a first oxidation catalyst, a selective catalytic reduction (SCR) catalyst, a urea water supply system, a particulate filter (PF) and a controller. Exhaust gas discharged from an internal combustion engine flows through the exhaust pipe. The first oxidation catalyst is disposed in the exhaust pipe. The SCR catalyst is disposed in the exhaust pipe downstream of the first oxidation catalyst. The urea water supply system supplies urea water to the SCR catalyst. The PF is disposed in the exhaust pipe downstream of the SCR catalyst. The controller stops supplying the urea water from the urea water supply system during regeneration of the PF, so as to supply the NO2 formed in the first oxidation catalyst to the PF, wherein the NO2 functions as an oxidizing agent to oxidize particulate matter (PM) deposited on the PF for regenerating the PF.

Abstract: An anode 20 of an electrochemical device 10 is connected to the cathode of a battery 30, and a cathode 22 of the electrochemical device 10 is connected to the anode of the battery. An electrolyte layer 24 containing electrolytes is arranged between the anode 20 and the cathode 22. Electrolyte layer 24 is formed by alternately laminating two types of electrolytes formed in the shape of plates. A first electrolyte is a proton conductor 26, and a second electrolyte is an oxygen ion conductor 28. A purification apparatus 120 includes a plurality of electrochemical devices 10.

Abstract: An exhaust gas treatment device includes an electrode assembly. The electrode assembly has an ion-conducting layer, anode and cathode electrodes, and a filter. The anode and cathode electrodes are provided spaced apart from each other on the ion-conducting layer having proton conductivity. The filter is provided between the anode and cathode electrodes and the thickness of the filter is greater than that of the anode and cathode electrodes for capturing particulate matter in exhaust gas. One part of the electrode assembly is overlapped with different part thereof in such a way that the filter of the one part thereof supports the different part thereof so that a space is formed between the two parts thereof. The anode and cathode electrodes and the filter are arranged such that exhaust gas supplied to the electrode assembly contacts with the anode electrode, and flows through the filter and contacts with the cathode electrode.

Abstract: A purification apparatus 120 includes a plurality of electrochemical devices 10. An anode 20 of each electrochemical device 10 is connected to a cathode of a battery, and a cathode of the electrochemical device 10 is connected to an anode of the battery. An electrolyte layer 24 containing an electrolyte is arranged between the anode 20 and the cathode 22. The electrolyte layer 24 contains a polymer film 26 and a support body 40 having a honeycomb structure and supporting the polymer film 26. The polymer film 26 is an electrolyte that exhibits conductivity with respect to protons H+.