Abstract: Updating performance of a display screen in a terminal device that displays a screen for remotely monitoring an object to be controlled by a control device is appropriately maintained. An information device for factory automation connected to the control device that controls an object communicates with a terminal device having a display capable of displaying a screen for remotely monitoring the control device. The screen includes one or more components. The screen data for displaying the screen includes attributes of the respective components relating to the display, and a logic executed by the programmable indicator to determine the attribute values. When the terminal device displays a screen, the programmable indicator transmits the attributes and attribute values of the respective components in the screen data to the terminal device.

Abstract: Updating performance of a display screen in a terminal device that displays a screen for remotely monitoring an object to be controlled by a control device is appropriately maintained. An information device for factory automation connected to the control device that controls an object communicates with a terminal device having a display capable of displaying a screen for remotely monitoring the control device. The screen includes one or more components. The screen data for displaying the screen includes attributes of the respective components relating to the display, and a logic executed by the programmable indicator to determine the attribute values. When the terminal device displays a screen, the programmable indicator transmits the attributes and attribute values of the respective components in the screen data to the terminal device.

Abstract: An amount of communication necessary for displaying a screen is acquired in a stage of creating the screen. Provided is a screen creation apparatus that creates a program for causing a target apparatus to display a screen. The screen includes one or more components, and the target apparatus makes a request for data for the components necessary for displaying or executing the components of the screen and receives the data as a response from a counterpart apparatus via a communication path, and the screen creation apparatus includes a communication amount storage unit that stores an amount of communication necessary for a case in which the data for the components is transferred via a communication path for each of the components and acquires an amount of screen communication that is the amount of communication corresponding to the one or more components included in the screen.

Abstract: A screen image generation apparatus includes a screen generation unit, a screen display duration database, and a display duration calculation unit. The screen generation unit generates a screen image to be displayed by an external device. The screen display duration database stores an element display duration for each element included in the screen image. The element display duration is a duration taken by the external device before displaying each element. The display duration calculation unit calculates, using the element display duration, a screen display duration taken by the external device before displaying the generated screen image.

Abstract: With respect to a routing and a gateway (protocol conversion) in a network system, frame data can simply be generated even if a source node does not understand format specifications of all protocols, communication efficiency degradation caused by an enlargement of header information can be prevented as much as possible, and dealing with a new protocol can be simplified. A source node (data transmission device) transmits “common routing information”, which includes route information identifying all the nodes through which a message frame is routed from an own node to a destination node, while adding the common routing information on the message frame. Each relay node (data relay device) sequentially transfers the message frame while referring to the common routing information to perform identification of a destination, generation of a header, and update of the common routing information.

Abstract: An object of the present invention is to identify sequence features of the 5? UTR, which are involved in changes in the translational state of plants under environmental stresses, and to provide a recombinant DNA molecule, an expression vector, a transformant, and the like, having the above sequence features.

Abstract: With respect to a routing and a gateway (protocol conversion) in a network system, frame data can simply be generated even if a source node does not understand format specifications of all protocols, communication efficiency degradation caused by an enlargement of header information can be prevented as much as possible, and dealing with a new protocol can be simplified. A source node (data transmission device) transmits “common routing information”, which includes route information identifying all the nodes through which a message frame is routed from an own node to a destination node, while adding the common routing information on the message frame. Each relay node (data relay device) sequentially transfers the message frame while referring to the common routing information to perform identification of a destination, generation of a header, and update of the common routing information.

Abstract: An object of this invention is to produce a protein by efficiently culturing plant cells while escaping mRNA translational repression in cultured plant cells under stress caused by lack of conditions essentially required for the growth (e.g., nutrient-starvation stress and hypoxic stress).

Abstract: An object of the present invention is to identify sequence features of the 5? UTR, which are involved in changes in the translational state of plants under environmental stresses, and to provide a recombinant DNA molecule, an expression vector, a transformant, and the like, having the above sequence features.

Abstract: An incineration and melting furnace has a furnace main body that is filled with a conductive heat generation body (for example, graphite). Radioactive combustible materials in contact with the conductive heat generation body are burnt and the radiaoactive incombustible materials are melted. The resultant exhaust gases and the molten products flow downwardly in the conductive heat generation body filled region and flow out of a molten product discharging port. Noxious gases such as dioxins contained in the exhaust gases are thermally decomposed into a non-toxic state in a high temperature portion of the conductive heat generation region.