Abstract: A client device accepts event information for which a people flow prediction is to be performed from a user and the client device inputs the accepted event information to a people flow prediction device. The people flow prediction device outputs a result of people flow prediction responsive to the input event information to the client device and the client device displays the result of people flow prediction to the user. The people flow prediction device performs a people flow prediction by temporally and spatially allocating an event attendance which has been input from the client device to pathways, each connecting a transport facility at which a people flow originates and an event site. Consequently, it is possible to predict a flow of people who attend an event or the like, the people flow differing from that in an ordinary situation, without need to input real-time data.

Abstract: A gas-liquid separator includes: a housing including a gas inlet, a gas outlet, and a water storage section at a lower side of the gas inlet and the gas outlet; a collision wall provided inside the housing to collide with a gas that contains water introduced from the gas inlet to separate the water from the gas by adhering the water thereto while changing a flow direction of the gas; and a downflow wall provided inside the housing to introduce the water falling from the collision wall into the water storage section and change the flow direction of the gas.

Abstract: A sample-holding device for holding and lifting a sample includes a sample-holding surface facing the sample; and a positioning member provided at a peripheral part of the sample-holding surface, the positioning member comprising a contact part having an outward-facing part on a back side thereof; a first rounded or chamfered end; and a second rounded or chamfered end, wherein the contact part contacts with part of the sample when the sample is held or when the sample is off-point, wherein the first end is an end of a section comprising the contact part or a part smoothly continuing from the contact part, the end being on a distant side from the sample-holding surface, and the second end is an end of the outward-facing part, the end being located on a tipping side of the outward-facing part.

Abstract: A first unit acquires attribute record data and a second unit acquires deterioration degree data from a terminal device mounted on a ship. The attribute record data indicates an attribute relating to a past sailing of the ship. The deterioration degree data indicates a deterioration degree, which is checked during performance of maintenance work, of each device mounted on the ship. A third unit generates relational data indicating a relation between various attributes relating to the state of the sailing of the ship and the deterioration degree of the device based on the attribute record data and deterioration degree data. A fourth unit acquires estimated attribute data indicating an estimated value of the attributes relating to sailing of the ship. A fifth unit generates timing data indicating a timing of maintenance work to be performed on each device based on the attribute record data, estimated attribute data, and relational data.

Abstract: A reference range identifying device acquires and records, at a predetermined time interval, a measuring result of a load and exhaust temperature of an engine. The device identifies, based on combinations of the load and exhaust temperature recorded at multiple points of time, for each load zone, for example a 95% confidence interval of a distribution of exhaust temperatures as a reference range. Subsequently, the device calculates an approximate curve for lower limits and upper limits of reference ranges identified for the load zones. The device identifies a range sandwiched by the calculated two approximate curves as a reference range that changes in accordance with a load. The device, upon detecting that a current load and exhaust temperature of the engine is not included in the reference range, notifies the detected fact to a user.

Abstract: A hemodialysis apparatus 1 is provided with a dialyzer 2 for performing hemodialysis, a blood circuit 3 connected to the dialyzer, a dialysis solution circuit 4 connected to the dialyzer, a replacement fluid port 31 provided in the dialysis solution circuit and capable of being opened and closed by a lid member, and a replacement fluid passage 6 having its one end connected to the blood circuit and the other end connected to the replacement fluid port.

Abstract: Method of manufacturing a transparent electrically conductive substrate having an application process whereby a wet layer is formed by applying onto a substrate film a coating liquid comprising metallic nanowires dispersed in a solvent, and a drying process whereby the solvent contained in the abovementioned wet layer is removed by drying, characterised in that the abovementioned drying process includes a process whereby the orientation of the abovementioned metallic nanowires is altered by introducing a forced draft facing towards the substrate from a direction that is different from the longitudinal direction of the substrate film.

Abstract: A method of charging a hollow valve with metallic sodium includes providing a workpiece, as a semi-finished product for a hollow poppet valve, in which a cavity has an upward opening at a free end of a valve stem at a working position; inserting a nozzle into the opening to feed an initial inert gas into the cavity by jetting the inert gas from the nozzle; moving up the nozzle to put a holder between the workpiece and the nozzle, the holder holding a rod-like metallic sodium; and inserting the nozzle into a first end of the holder while an additional inert gas is jetted into the cavity from the nozzle to push down the rod-like metallic sodium along with the inert gas from a second end of the holder into the cavity of the workpiece.

Abstract: A piping unit includes a cathode gas supply passage arranged to supply a cathode gas, and a cathode gas discharge passage arranged to discharge a cathode off-gas. The cathode gas supply passage includes a cathode supply valve, upstream cathode gas piping and downstream cathode gas piping. The cathode gas discharge passage includes a cathode exhaust valve, upstream cathode off-gas piping and downstream cathode off-gas piping. The cathode gas supply passage and the cathode gas discharge passage are connected with each other by cathode bypass piping and are integrated with each other by joining the cathode supply valve with the upstream cathode off-gas piping.

Abstract: An exhaust drain valve includes a valve casing, a primary flow passage introducing an anode-off gas and a produced water from an inlet of the primary flow passage to an inside, a secondary flow passage discharging the anode-off gas and the produced water from an outlet of the secondary flow passage to an outside, a valve seat being formed at a primary flow passage outlet, and a valve body moving forward and backward. The primary flow passage includes an orifice being communicated with the primary flow passage outlet, an introduction flow passage having a diameter larger than a diameter of the orifice, the introduction flow passage being communicable with the inlet, and a step portion being formed orthogonal to an axial direction of the introduction flow passage, the step portion connecting the orifice and the introduction flow passage by having a step between the orifice and the introduction flow passage.

Abstract: A dialysis apparatus has a dialysate circuit 4 which is cleaned after dialysis by both opening/closing valves V101 and V102 being closed after a dialysate in the dialysate circuit 4 is replaced with a cleaning liquid. The opening/closing valve V12 is opened, and the cleaning liquid is circulated by pumps P1 and P4 while being heated by a heater H1, to clean the inside of the dialysate circuit 4. A deaeration tank 31 is provided downstream of the pump P1. Air bubbles generated from the cleaning liquid serving as hot water are deaerated by the deaeration tank 31 and are then discharged into a gas storage tank 48 via a deaeration passage 32. The pumps P1 and P4 can be reliably prevented from being unable to operate with the air bubbles generated from the cleaning liquid.

Abstract: An exhaust drain valve includes a valve casing, a primary flow passage introducing an anode-off gas and a produced water from an inlet of the primary flow passage to an inside, a secondary flow passage discharging the anode-off gas and the produced water from an outlet of the secondary flow passage to an outside, a valve seat being formed at a primary flow passage outlet, and a valve body moving forward and backward. The primary flow passage includes an orifice being communicated with the primary flow passage outlet, an introduction flow passage having a diameter larger than a diameter of the orifice, the introduction flow passage being communicable with the inlet, and a step portion being formed orthogonal to an axial direction of the introduction flow passage, the step portion connecting the orifice and the introduction flow passage by having a step between the orifice and the introduction flow passage.

Abstract: There is provided a method of charging a hollow valve with metallic sodium easily and swiftly without being oxidized over the surface of the metallic sodium and an apparatus therefor. The metallic sodium is fed into a cavity of the hollow valve in which a valve stem has a smaller diameter. A workpiece, a semi-finished product for a hollow poppet valve, is disposed at a working position where an opening is directed upward. A cavity of the workpiece is open at a free end of the valve stem. A nozzle is inserted into the opening. An inert gas is jetted from the nozzle and is fed into the cavity. Then, the nozzle is moved up, and a holder that holds the rod-like metallic sodium 10 is disposed between the workpiece and the nozzle. While the inert gas is jetted from the nozzle, the metallic sodium is pressed into the cavity of the workpiece.

Abstract: [Problem] To improve the anisotropy of transparent electrically conductive substrates that employ metallic nanowires. [Means of overcoming the problem] Method of manufacturing a transparent electrically conductive substrate having an application process whereby a wet layer is formed by applying onto a substrate film a coating liquid comprising metallic nanowires dispersed in a solvent, and a drying process whereby the solvent contained in the abovementioned wet layer is removed by drying, characterised in that the abovementioned drying process includes a process whereby the orientation of the abovementioned metallic nanowires is altered by introducing a forced draft facing towards the substrate from a direction that is different from the longitudinal direction of the substrate film.

Abstract: When a dialysate circuit 4 is cleaned after dialysis, both opening/closing valves V101 and V102 are closed after a dialysate in the dialysate circuit 4 is replaced with a cleaning liquid. The opening/closing valve V12 is opened, and the cleaning liquid is circulated by pumps P1 and P4 while being heated by a heater H1, to clean the inside of the dialysate circuit 4. A deaeration tank 31 is provided downstream of the pump P1. Air bubbles generated from the cleaning liquid serving as hot water are deaerated by the deaeration tank 31 and are then discharged into a gas storage tank 48 via a deaeration passage 32. The pumps P1 and P4 can be reliably prevented from being unable to operate with the air bubbles generated from the cleaning liquid.

Abstract: A hemodialysis apparatus 1 is provided with a dialyzer 2 for performing hemodialysis, a blood circuit 3 connected to the dialyzer, a dialysis solution circuit 4 connected to the dialyzer, a replacement fluid port 31 provided in the dialysis solution circuit and capable of being opened and closed by a lid member, and a replacement fluid passage 6 having its one end connected to the blood circuit and the other end connected to the replacement fluid port. After a dialysis fluid substitution step of filling the dialysis solution circuit with a dialysis solution, the lid member is detached from the replacement fluid port to change the replacement fluid port from a closed state to an open state. To connect the replacement fluid passage to the replacement fluid port in the open state, a negative pressure forming step to make the pressure in the dialysis solution circuit negative is performed after the dialysis fluid substitution step.

Abstract: A piping unit includes a cathode gas supply passage arranged to supply a cathode gas, and a cathode gas discharge passage arranged to discharge a cathode off-gas. The cathode gas supply passage includes a cathode supply valve, upstream cathode gas piping and downstream cathode gas piping. The cathode gas discharge passage includes a cathode exhaust valve, upstream cathode off-gas piping and downstream cathode off-gas piping. The cathode gas supply passage and the cathode gas discharge passage are connected with each other by cathode bypass piping and are integrated with each other by joining the cathode supply valve with the upstream cathode off-gas piping.

Abstract: An object is to provide a fuel cell system having a simple structure, which is capable of supplying gas appropriately through an ejector in accordance with the load of a fuel cell. The fuel cell system (1) uses an ejector (24) disposed in a gas supply system (4) to combine a new gas to be supplied to the fuel cell (2) with an off-gas discharged from the fuel cell (2) and supply the fuel cell (2) with the resulting combined gas. The ejector (24) includes a nozzle (46) for ejecting the new gas and generating a negative pressure for aspirating the off-gas, and a flow rate control mechanism (47) for controlling the flow rate of the new gas which passes through the nozzle (46). A first flow path (81) for leading the off-gas to the flow rate control mechanism (47) is provided in the gas supply system (4), and the flow rate control mechanism (47) controls the flow rate of the new gas in accordance with the pressure of the off-gas led from the first flow path (81).

Abstract: In a network monitoring system according, first, a data acquisition section acquires a plurality of packets flowing on a network. Then, a data analysis section acquires action explanation information for explaining a single action from the plural packets acquired by the data acquisition section. Then, a display-information generation section displays the single action on the network on the single screen based on the action explanation information acquired by this data analysis section.

Abstract: A vehicle includes a roll cage and a net structure. The roll cage at least partially defines a protected area and additionally at least partially defines an access opening configured to facilitate passage of an operator through the access opening and into the protected area. A net structure is attached to the roll cage and is configured to selectively block at least a portion of the access opening. Net structures and methods are also provided.