Abstract: Systems, devices and/or methods include communication of information, such as real-time rich media (e.g., video and audio) to, from and/or between a mobile first responder, such as remote public safety field personnel for public safety applications. A mobile device/system may capture, store and/or transmit sensor data of mobile sensors associated with the mobile device/system. In some examples, a field officer may set one or more rules via a user interface of a mobile system/device. A wireless communication may be automatically established in response to the sensor data and the one or more rules.

Abstract: A secure access system includes at least one lock, at least one electronic key with stored information assigned to a user and a system administration for administering user access privileges. A method for remotely updating the user's expired access privileges includes establishing communication between the user and the system administration from a location remote from the system administration, receiving a remote privilege code from the system administration, communicating the remote privilege code to the lock, and, if authorized, the lock validating the privilege code to renew the user's access privileges. The validated privilege code can also be made effective to access other different locks within the system.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A computerized power management control system (10) includes a virtual modular relay device (82) for providing input and output data to and from a corresponding, actual modular relay device (47 or 49). Virtual modular relay device (82) is displayed in a window (90), with the upper left-hand corner of window (90) including a graphical depiction (92) of the modular relay device. Immediately below the graphical depiction (92) is a communications status indicator (94), which shows the status of communications (connected/disconnected) between the virtual device (82) and an inter-process communications server (52). Various fields (96) appear along the left-hand side of window to identify the modular relay unit (47 or 49). Below identification fields (96) are a plurality of buttons (98), each of which allow the user to activate a program module. Buttons (156 and 154) can be customized by the user to activate any program module.

Abstract: A key control system includes at least one premise, a lockbox capable of securing a key to the premise and at least one mobile telephone associated with a user and having a stored access device program capable of communicating an access request to the lockbox. The premise is subject to authorized access by others, such as the user, based on preferences of an approval party established with the system. If specified by these preferences, the mobile telephone automatically initiates a communication to a selected destination to request approval of the access request.

Abstract: A computerized power management control system (10) includes a virtual modular relay device (82) for providing input and output data to and from a corresponding, actual modular relay device (47 or 49). Virtual modular relay device (82) is displayed in a window (90), with the upper left-hand corner of window (90) including a graphical depiction (92) of the modular relay device. Immediately below the graphical depiction (92) is a communications status indicator (94), which shows the status of communications (connected/disconnected) between the virtual device (82) and an inter-process communications server (52). Various fields (96) appear along the left-hand side of window to identify the modular relay unit (47 or 49). Below identification fields (96) are a plurality of buttons (98), each of which allow the user to activate a program module. Buttons (156 and 154) can be customized by the user to activate any program module.

Abstract: A web-based method and system for product planning for business includes receiving information concerning the attributes of a product from a user and using a server to compile the information and the relative importance of those attributes as judged by a user, and to disseminate the results of that compilation.

Abstract: Software (50) is loaded into the host computer (12) and includes an Ethernet server (52), a Modbus (DDE) server (54), an MMS server (56), and a third-party proprietary protocol server (58). Each of these servers (52, 54, 56, and 58) allows external programs (60) running on the host and view node computers (12, 40, and 44) to access power management data from the various devices (26) in the power management control system (10). Modbus server (52) allows external programs (60) to access power management data from devices (26), which communicate using the Modbus protocol. MMS server (56) allows external programs (60) to access power management data from MMS/UCA2 compliant devices (34), which communicate using the MMS protocol. Ethernet server (52) provides for network layer TCP/IP encapsulation for communications over Ethernet networks (20) and (22). Third party server (58) allows communications between external programs (60) and device (38), which uses any proprietary protocol.

Abstract: A dynamic data exchange (DDE) server (100) which allows external programs to access power management data is presented. The DDE server (100) provides a mnemonic cross reference between register items and standardized, alphanumeric parameter names. This mnemonic interface allows the user to retrieve data from a device without knowledge of the actual device register item number. The DDE server (100) is optimized for either the Modbus RTU or Ethernet protocol. The DDE server (100) acts as a link between a client requesting device data and a field device which can provide the data. The DDE server (100) communicates to the field device through communication ports and to the client via DDE or NetDDE message link. A client sends its requests to server to read/write some device registers. The server maps each request to suitable device read/write request packets and carries out the necessary transaction with device.