Abstract: A system for customizing a robot for client use, including a central server computer, a robotic operation control kit to control functionality of the robot, wherein the robotic operation control kit is stored on the central server to be downloaded by the robot to control general robot functionality that is not client specific, a client customizing application at the central server, which is accessible by a client to customize an application layer that is configured to be downloaded to the robot and cooperate with the robotic operation control kit to provide functionality of the robot; wherein the application layer controls client specific robot functionality.

Abstract: A system, including an analysis server computer, a robot that is configured to participate in interactions with one or more participants; wherein the robot is configured to collect information related to the participants during the interaction, wherein the robot accepts a summary report related to the interaction from a participant or forms a summary report, wherein the robot is configured to forward the summary report to the analysis server for analysis, wherein the analysis server is configured to analyze the summary report and determine if the summary report should pass or fail, when the summary report passes the analysis server is configured to store the summary report in a database; and when the summary report fails the analysis server is configured to provide feedback to the robot with a list of problems for correction in the summary report.

Abstract: A system, including an analysis server computer, a robot that is configured to participate in interactions with one or more participants; wherein the robot is configured to collect information related to the participants during the interaction, wherein the robot accepts a summary report related to the interaction from a participant or forms a summary report, wherein the robot is configured to forward the summary report to the analysis server for analysis, wherein the analysis server is configured to analyze the summary report and determine if the summary report should pass or fail, when the summary report passes the analysis server is configured to store the summary report in a database; and when the summary report fails the analysis server is configured to provide feedback to the robot with a list of problems for correction in the summary report.

Abstract: A physical connector includes an intelligent locking system (which may further include a mechanical locking system) that operates to connect modules of a modular system that further contains data and power connectors along at least one bus system wherein the internal connectors may be modularized (and broken down into subsets as the data and power connecting lines propagate through the system), wherein the connector includes a transponder capable of communicating with another transponder of a different connector, wherein the transponder holds basic data on the connecting module and connecting modules down the connection line and that basic data is interpreted by a core module with use of a data library.

Abstract: A system for customizing a robot for client use, including a central server computer, a robotic operation control kit to control functionality of the robot, wherein the robotic operation control kit is stored on the central server to be downloaded by the robot to control general robot functionality that is not client specific, a client customizing application at the central server, which is accessible by a client to customize an application layer that is configured to be downloaded to the robot and cooperate with the robotic operation control kit to provide functionality of the robot; wherein the application layer controls client specific robot functionality.

Abstract: A server to manage a plurality of robots, where each robot performs a specified set of tasks, includes a robot management table, an operational database, a preprocessor and an initializer. The robot management table lists per robot tasks and associated scripts according to a unique robot ID for each of the plurality of robots. The operational database stores operational data required to run the scripts. The preprocessor runs at least one algorithm to obtain and update the operational data. The initializer initializes a particular robot of the plurality of robots according to its unique robot ID with its associated the scripts when the server is in network communication with the particular robot.

Abstract: A method of using an intelligent, multi-function robot having and using internal Artificial Intelligence (AI). The method includes the steps of: during a pre-initialization process or an initialization process prior to autonomous operation of the robot, downloading from an external server when the robot is online the functionality and data required for the robot to perform a particular task; during autonomous operation of the robot, the robot not using said external server or said external AI; running software natively on a limited amount of hardware on the robot for performing preconfigured functions, wherein the data stored on the robot consists only of that necessary for performing the preconfigured functions; and adapting said robot for autonomous movement within a defined premises.

Abstract: An intelligent, multi-function robot capable of autonomous movement includes multiple functional modules to perform functional features of the robot and a brain to activate the functional features. Each functional module is packaged in its own isolated container and each container is a virtual environment container within which the module operates. The functional features are low resource processing tasks useful for autonomous operation of the robot.

Abstract: A method of using an intelligent, multi-function robot having and using internal Artificial Intelligence and functioning autonomously when not connected to external Artificial Intelligence, comprising the steps of: during a pre-initialization process or an initialization process prior to autonomous operation of the robot downloading from a server when the robot is online the functionality and data required for the robot to perform a particular task; during autonomous operation of the robot, the robot not using said external server or said external Artificial Intelligence; running software natively on the robot itself and the hardware processing the software is on the robot itself, and wherein data stored on the robot consists only of that necessary for performing preconfigured functions; limiting on board hardware processing power consists only of that necessary for performing the preconfigured functions; and adapting said robot for autonomous movement within a defined premises.

Abstract: A method of using an intelligent, multi-function robot having and using internal Artificial Intelligence and functioning autonomously when not connected to external Artificial Intelligence, comprising the steps of: during a pre-initialization process or an initialization process prior to autonomous operation of the robot downloading from a server when the robot is online the functionality and data required for the robot to perform a particular task; during autonomous operation of the robot, the robot not using said external server or said external Artificial Intelligence; running software natively on the robot itself and the hardware processing the software is on the robot itself, and wherein data stored on the robot consists only of that necessary for performing preconfigured functions; limiting on board hardware processing power consists only of that necessary for performing the preconfigured functions; and adapting said robot for autonomous movement within a defined premises.