Abstract: A robotic activity system, which includes a board and an autonomous robotic device, is described herein. The board may display a line and one or more color patterns. The robotic device may traverse the line using one or more integrated sensors. For example, sensor data may include light intensity data for visible light reflected or emitted by the board. The sensor data may be analyzed to 1) ensure the robotic device follows the line and/or 2) detect color sequences associated with color patterns shown on the board. Upon detection of a color sequence, the robotic device may attempt to match the color sequence with a known color pattern definition. The color pattern definition may be associated with a function to be performed by the robotic device. Using multiple sets of color patterns and associated functions allows the robotic device to move in a variable and potentially unpredictable fashion.

Abstract: A robotic activity system, which includes a board and an autonomous robotic device, is described herein. The board may display a line and one or more color patterns. The robotic device may traverse the line using one or more integrated sensors. For example, sensor data may include light intensity data for visible light reflected or emitted by the board. The sensor data may be analyzed to 1) ensure the robotic device follows the line and/or 2) detect color sequences associated with color patterns shown on the board. Upon detection of a color sequence, the robotic device may attempt to match the color sequence with a known color pattern definition. The color pattern definition may be associated with a function to be performed by the robotic device. Using multiple sets of color patterns and associated functions allows the robotic device to move in a variable and potentially unpredictable fashion.

Abstract: The robotic activity system described herein provides for efficient communications between the robotic device and the board without the establishment of a wired or radio-frequency connection. In particular, through the simulation of touch events by the robotic device on the touch display of the board using capacitive elements on the robotic device, information/data may be communicated from the robotic device to the board, including the location of the robotic device relative to the touch display, the orientation of the robotic device relative to the touch display, status information of the robotic device (e.g., battery level, motor voltages, or wheel speed), and/or other similar pieces of information. Since this information is communicated using the conductive elements, a dedicated data connection, including separate radios and/or interfaces, is not needed. This communicated information may be used for conducting an interactive game involving the robotic device and the board or another activity.

Abstract: There is provided a self-propelled electronic device for use on a base surface. The electronic device includes a chassis disposable over the base surface. The chassis includes a first surface facing the base surface when the chassis is disposed thereover. A light meter is configured to detect light incident toward the first surface and determine a luminance level thereof the detected light. A light source is configured to transition between an ON and OFF states dependent on the luminance level of the detected light. A line sensor is coupled to the chassis and is configured to sense a line segment on the base surface. A movement mechanism is coupled to the chassis and is placeable on the base surface. The movement mechanism is in operative communication with the line sensor to move on the base surface in a pattern corresponding to the line sensed on the base surface.