Abstract: An area evaluation unit (51) acquires for each area of a plurality of areas, a predictive value of each area which is predicted to be measured when a device operates in a space that includes the plurality of areas. A building evaluation unit (52) acquires an overall predictive value which is a predictive value of the entire space calculated using a plurality of predictive values of the plurality of areas. Further, the area evaluation unit (51) evaluates the predictive value of each area, using a partial evaluation criterion which is an evaluation criterion applied to each area. Further, the building evaluation unit (52) evaluates the overall predictive value, using an overall evaluation criterion which is an evaluation criterion applied to the entire space.

Abstract: The insulation resistance testing device of the present disclosure includes a first magnetic current sensor disposed between the control unit and the ground, and a first damping resistor disposed in series with the first magnetic current sensor between the control unit and the ground. The insulation resistance testing device of the present disclosure includes a second magnetic current sensor disposed between the positive terminal and the ground of the battery pack, and a second damping resistor disposed in series with the second magnetic current sensor between the positive terminal and the ground.

Abstract: According to the present disclosure, there is provided a technique capable of rapidly identifying a cause of an occurrence of a failure and supporting a recovery. There is provided a technique that includes: a memory storing recipes, apparatus information reported from within the substrate processing apparatus and failure information; a process vessel in which a substrate is processed based on a recipe; and a controller for: (i) storing failure data in the memory together with an occurrence time of the failure contained in the failure information when the failure occurs in the substrate processing apparatus, the failure data containing first apparatus-related information reported before the failure during a first period defined in advance and the recipe in the memory; and (ii) adding second apparatus-related information reported after the failure during a second period defined in advance to the failure data.

Abstract: To provide a method for producing particles, which contains: bringing a compressive fluid and a pressure plastic material into contact with each other using a multistage split flow micromixer, to thereby produce a melt of the pressure plastic material, in which the compressive fluid is dissolved; and jetting the melt of the pressure plastic material, to form particles, wherein the pressure plastic material is a resin having a carbonyl structure —C(?O)—, and wherein a viscosity of the melt is 500 mPa·s or lower, as measured under temperature and pressure conditions at the time of the jetting the melt of the pressure plastic material.

Abstract: To provide a method for producing particles, which contains: bringing a compressive fluid and a pressure plastic material into contact with each other using a multistage split flow micromixer, to thereby produce a melt of the pressure plastic material, in which the compressive fluid is dissolved; and jetting the melt of the pressure plastic material, to form particles, wherein the pressure plastic material is a resin having a carbonyl structure —C(?O)—, and wherein a viscosity of the melt is 500 mPa·s or lower, as measured under temperature and pressure conditions at the time of the jetting the melt of the pressure plastic material.

Abstract: Provided is a resource management method in a system which individually limits a resource amount used by a software module (143) and adjusts the total of the maximum resource amounts used by respective software modules to be smaller than the entire system resource amount. When installing or executing a new software module, step 406 checks whether a software module group already installed or being executed is stably operating according to an execution history thereof; and step 407 checks whether to enable the installation or execution by including the maximum actual resource use value in the total from the execution history.

Abstract: An in-vehicle terminal (101) is provided, which has a function ensuring that computer resource secured by a virtual machine (1a1) or a virtual machine (1b1) is controlled within a limit value of the computer resource that is allocated to the corresponding virtual machine, or a function which is capable of executing multiple virtual machines appropriately. When the virtual machine (1a1) or the virtual machine (1b1) requests securing the computer resource, the in-vehicle terminal (101) requests the OS (143) to secure computer resource in response to the request, if the requested resource is lower than the limit value of the computer resource that is allocated to the corresponding virtual machine.

Abstract: A portable terminal displays on a selection screen not only contents stored in the portable terminal but also contents stored in a contents server communicatable via a network with the portable terminal. The selection screen displays information regarding the size and location of each of the contents, as well as estimated time and cost required to obtain each of the corresponding contents based on information regarding communication speed and communication path such as communicatable areas. The portable terminal is also equipped with a function to search another communication path that becomes available when moving the portable terminal to another location, and a function to suggest to obtain the contents using such a communication path if the new communication path provides faster and/or more inexpensive connection.

Abstract: Provided is a resource management method in a system which individually limits a resource amount used by a software module (143) and adjusts the total of the maximum resource amounts used by respective software modules to be smaller than the entire system resource amount. When installing or executing a new software module, step 406 checks whether a software module group already installed or being executed is stably operating according to an execution history thereof; and step 407 checks whether to enable the installation or execution by including the maximum actual resource use value in the total from the execution history.

Abstract: A portable terminal displays on a selection screen not only contents stored in the portable terminal but also contents stored in a contents server communicatable via a network with the portable terminal. The selection screen displays information regarding the size and location of each of the contents, as well as estimated time and cost required to obtain each of the corresponding contents based on information regarding communication speed and communication path such as communicatable areas. The portable terminal is also equipped with a function to search another communication path that becomes available when moving the portable terminal to another location, and a function to suggest to obtain the contents using such a communication path if the new communication path provides faster and/or more inexpensive connection.

Abstract: Power consumption can be suppressed while maintaining an appropriate execution speed. The information processor has an interpreter for interpreting a source program or intermediate language program and a run-time translator for translating the program into a machine language program native to the computer. The information processor comprises a power-saving request monitor for monitoring whether or not there is a power-saving request from an input interface or a predetermined power-saving request in a given memory, and a power-saving translation controller. The power-saving request makes a request for suppression of the power consumed by the processor. The power-saving translation controller makes a decision as to whether the run-time translator executes run-time translation of the program according to whether there is the power-saving request. Based on the result of the decision, the translation controller instructs the run-time translator to execute the run-time translation.

Abstract: An information processing terminal includes a calculation processing unit, a telephone communication processing unit for performing a telephone communication with respect to another appliance, a communication processing unit for performing a communication operation with respect to the another appliance, and a signature calculating unit in which when a telephone communication with respect to the above-described another appliance is carried out, a signature using a secret key is produced by the calculation processing unit, and the signature calculating unit produces information attached with signature to which the produced signature has been attached. In the information processing terminal, the telephone communication processing unit transmits the information attached with signature to the another appliance corresponding to a telephone calling destination.

Abstract: An in-vehicle terminal (101) is provided, which has a function ensuring that computer resource secured by a virtual machine (1a1) or a virtual machine (1b1) is controlled within a limit value of the computer resource that is allocated to the corresponding virtual machine, or a function which is capable of executing multiple virtual machines appropriately. When the virtual machine (1a1) or the virtual machine (1b1) requests securing the computer resource, the in-vehicle terminal (101) requests the OS (143) to secure computer resource in response to the request, if the requested resource is lower than the limit value of the computer resource that is allocated to the corresponding virtual machine.

Abstract: In a software distribution unit, a binary-code analysis unit determines a total set of insertion positions at which probes can be inserted into software. A binary-code change unit determines the population of insertion positions of probes to be inserted into the software and the number of insertion positions of probes to be inserted on a device basis. Then, the binary-code change unit selects, from the population, insertion positions of probes as many as the determined number of insertion positions and inserts the probes into the software at the selected insertion positions. A software distribution unit distributes, to the device, the software into which the probes are inserted. As a result, it is possible to reduce both a load on the device side and a load on the software developer side at the same time and to acquire uniform debug information without deviations.

Abstract: An ETC (electronic toll collection) system includes an antenna having a predetermined directivity for providing a limited radio-communication service zone. A vehicle sensor operates for detecting a vehicle which reaches a predetermined position in the limited radio-communication service zone. A radio signal is transmitted via the antenna. A decision is made as to whether or not a radio response to the radio signal is received via the antenna. In cases where a radio response to the radio signal is received, it is judged that there is an ETC vehicle incoming. In cases where the vehicle sensor detects a vehicle while a radio response to the radio signal is not received, it is judged that there is a non-ETC vehicle incoming.

Abstract: A portable terminal displays on a selection screen not only contents stored in the portable terminal but also contents stored in a contents server communicatable via a network with the portable terminal. The selection screen displays information regarding the size and location of each of the contents, as well as estimated time and cost required to obtain each of the corresponding contents based on information regarding communication speed and communication path such as communicatable areas. The portable terminal is also equipped with a function to search another communication path that becomes available when moving the portable terminal to another location, and a function to suggest to obtain the contents using such a communication path if the new communication path provides faster and/or more inexpensive connection.

Abstract: Power consumption can be suppressed while maintaining an appropriate execution speed. The information processor has an interpreter for interpreting a source program or intermediate language program and a run-time translator for translating the program into a machine language program native to the computer. The information processor comprises a power-saving request monitor for monitoring whether or not there is a power-saving request from an input interface or a predetermined power-saving request in a given memory, and a power-saving translation controller. The power-saving request makes a request for suppression of the power consumed by the processor. The power-saving translation controller makes a decision as to whether the run-time translator executes run-time translation of the program according to whether there is the power-saving request. Based on the result of the decision, the translation controller instructs the run-time translator to execute the run-time translation.

Abstract: A method for inserting monitor code into a program, improved to monitor the execution of any part of a program, is proposed. By embedding monitor code in place within a sequence of executable codes constituting a function to be monitored when reading the program and executing monitor actions through the intervention of stub functions during the program execution, monitoring the program execution is performed without placing loads on the run of the program other than the functions to be monitored.

Abstract: An information processing terminal includes a calculation processing unit, a telephone communication processing unit for performing a telephone communication with respect to another appliance, a communication processing unit for performing a communication operation with respect to the another appliance, and a signature calculating unit in which when a telephone communication with respect to the above-described another appliance is carried out, a signature using a secret key is produced by the calculation processing unit, and the signature calculating unit produces information attached with signature to which the produced signature has been attached. In the information processing terminal, the telephone communication processing unit transmits the information attached with signature to the another appliance corresponding to a telephone calling destination.

Abstract: A portable terminal displays on a selection screen not only contents stored in the portable terminal but also contents stored in a contents server communicatable via a network with the portable terminal. The selection screen displays information regarding the size and location of each of the contents, as well as estimated time and cost required to obtain each of the corresponding contents based on information regarding communication speed and communication path such as communicatable areas. The portable terminal is also equipped with a function to search another communication path that becomes available when moving the portable terminal to another location, and a function to suggest to obtain the contents using such a communication path if the new communication path provides faster and/or more inexpensive connection.