Robotic arm including edge computer and cabling arrangement facilitating flexible function advanced distal arm end tooling

1. A robotic arm assembly comprising:

a host computer;

a set of robotic arm segments, including at least a most proximal robotic arm segment at a base of the robotic arm assembly and a most distal robotic arm segment;

a set of actuators, each actuator being interposed between adjacent pairs of the set of robotic arm segments to affect a relative movement between the adjacent pairs of the set of robotic arm segments;

an end effector controller configured with:

a first interface configured to support a first communication link between the end effector controller and the host computer, and

a second interface, separate from the first interface;

an end effector adapter configured to provide a high speed data interface between the end effector controller and an end effector,

wherein the end effector is mounted at a distal position on the robotic arm assembly,

wherein the end effector is mounted proximate the end effector controller, and

wherein the second interface is configured to support a second communication link between the end effector controller and the end effector adapter;

a display interface, wherein an output of the display interface is driven under control of the end effector controller; and

a hinging physical connection between the end effector adapter and the most distal robotic arm segment.

2. The robotic arm assembly of claim 1 wherein the second interface is coupled to the high speed data interface via a cable comprising a set of wires.

3. The robotic arm assembly of claim 1 wherein the end effector adapter includes at least a direct current power supply for the end effector.

4. The robotic arm assembly of claim 1 wherein the end effector controller comprises an operating system.

5. The robotic arm assembly of claim 1 wherein the end effector is one of a plurality of interchangeable end effectors, each of the plurality of interchangeable end effectors being configured to communicate with the end effector controller.

6. The robotic arm assembly of claim 1 wherein the end effector controller is carried by the most distal robotic arm segment.

7. The robotic arm assembly of claim 1 wherein the end effector adapter comprises a set of communication planar faces arranged in a three-dimensional space.

8. The robotic arm assembly of claim 7 wherein the set of communication planar faces are arranged on sides of an end effector adaptor connector structure, where the end effector adapter connector structure includes an asymmetric geometric face that permits engagement in only a single rotational position with a corresponding end effector connector structure of the end effector.

9. The robotic arm assembly of claim 7 wherein the end effector adapter comprises a set of alignment holes to facilitate connecting the end effector adapter and the end effector.

10. The robotic arm assembly of claim 1 wherein the end effector adapter comprises a set of communication planar faces, where one communication planar face of the set of communication planar faces provides a set of signal lines for controlling an electronic component configured on the end effector.

11. The robotic arm assembly of claim 1 wherein the end effector adapter comprises a set of communication planar faces, where multiple communication planar faces of the set of communication planar faces correspond to a data bus and an address bus of a shared bus interface between the end effector controller and multiple electronic components of the end effector.

12. A robotic arm assembly, comprising:

a host computer;

a set of robotic arm segments;

a set of actuators interposed between adjacent pairs of the set of robotic arm segments to cause relative movement between the robotic arm segments;

an end effector controller configured with:

a first interface configured to support a first communication link between the end effector controller and the host computer, and

a second interface, separate from the first interface;

an end effector adapter configured to provide a high speed data interface between the end effector controller and an end effector,

a plurality of interchangeable end effectors, one of which is mounted at a distal position on the robotic arm assembly,

wherein the end effector is mounted proximate the end effector controller, and

wherein the second interface is configured to support a second communication link between the end effector controller and the end effector adapter;

a display interface, wherein an output of the display interface is driven under control of the end effector controller; and

a hinging physical connection between the end effector adapter and the most distal robotic arm segment.

13. The robotic arm assembly of claim 12 , wherein each of the plurality of interchangeable end effectors is releasably connected to the end effector adapter and configured to communicate with the end effector controller.

14. The robotic arm of claim method of claim 13 , wherein, during operation, the end effector controller communicates with the host computer to affect a coordinated simultaneous operation of the set of actuators and the end effector in accordance with a continuous and coordinated simultaneous operation control scheme.