Apparatus, systems, and methods for reconfigurable robotic manipulator and coupling

1. A reconfigurable robotic manipulator arm comprising:

a first joint including:

a first end assembly having a mechanical coupling interface and an electrical interface; and

a second end assembly having a mechanical coupling interface and an electrical interface;

a second joint including:

a third end assembly having a mechanical coupling interface and an electrical interface; and

a fourth end assembly having a mechanical coupling interface and an electrical interface;

wherein said first and fourth end assemblies are connectable at said first and fourth mechanical coupling interfaces to form a first adapter between said first and second joints including an operative electrical connection between said first and fourth electrical interfaces;

wherein said first and second joints are detachable at said first adapter and re-connectable at said second and third mechanical coupling interfaces to form a second adapter between said first and second joints including an operative electrical connection between said second and third electrical interfaces;

an internally threaded locking ring of said first joint configured to rotatably engage and grasp an externally threaded portion of said second joint to couple said first and second joints; and

at least one motor-driven surface, wherein said motor-driven surface is configured to induce rotational engagement of said first and second joints.

2. The robotic manipulator arm of claim 1 , wherein one or more of said joints includes a brake and a magnetic brake release switch configured to be activated by a removable external magnet, and further including a ferrous metal member to augment said magnetic brake release switch.

3. The robotic manipulator arm of claim 1 , wherein said first end assembly further comprises mechanical bosses configured to insert into and interlock with multifaceted recesses of said fourth end assembly in only a single orientation.

4. The robotic manipulator arm of claim 1 , wherein said electrical interface of said first and fourth end assemblies further comprises a plurality of mating pairs of slidably engageable electrical transfer connectors to transfer data and power therebetween, and further comprises a pair of electrical actuation connectors to enable transfer of data and power on said plurality of electrical transfer connectors;

wherein said electrical actuation connectors are a shorter length than said plurality of electrical transfer connectors; and

wherein said transfer of data or power via said electrical transfer connectors will not occur unless said electrical actuation connectors are engaged.

5. The robotic manipulator arm of claim 4 , wherein said electrical actuation connectors are spring-loaded axially extendable pins.

6. The robotic manipulator arm of claim 1 , wherein said first joint further comprises a first optical encoder position sensor configured to detect an absolute position of said first end assembly with respect to said second end assembly via a position indicator mounted on one of said first or second end assemblies, where said position indicator includes a region of graduated varying optical contrast.

7. The robotic manipulator arm of claim 6 , further comprising a second optical encoder position sensor configured to detect an angular position of said first end assembly with respect to said second end assembly via discrete varying optical contrast.

8. A joint for a robotic manipulator arm, said joint comprising:

a base section;

a rotatable section;

a motor configured to rotate said rotatable section or said base section with respect to said other section;

a brake;

a magnetic brake release switch including a ferrous metal member,

wherein said magnetic brake release switch is configured to be activated by a removable external magnet to release said brake and allow relative movement between said rotatable section and said base section;

a first optical encoder position sensor configured to detect an absolute position of said rotatable section with respect to said base section via a position indicator mounted on one of said rotatable or base section, wherein said position indicator includes a region of graduated varying optical contrast and

a second optical encoder position sensor configured to detect an angular position of said rotatable section with respect to said base section via discrete varying optical contrast.

9. An adapter for connecting different portions of a robotic system comprising:

a first assembly including a mechanical coupling interface and an electrical interface;

a second assembly including a mechanical coupling interface and an electrical interface;

wherein said first assembly is connectable to a first portion of said robotic system;

wherein said second assembly is connectable to a second portion of said robotic system;

wherein said mechanical coupling interfaces are connectable whereby said electrical interfaces are brought into contact to form an operative electrical connection in said adapter;

an internally threaded locking ring of said first assembly rotatably engages and grasps an externally threaded member of said second assembly to couple said first and second assemblies; and

at least one motor-driven surface, wherein said motor-driven surface is configured to induce rotational engagement of said first and second assemblies.

10. The adapter of claim 9 , further comprising:

a motor configured to rotate said first assembly with respect to said second assembly;

a brake; and

a magnetic brake release switch including a ferrous metal member,

wherein said magnetic brake release switch is configured to be activated by a removable external magnet to release said brake and allow relative movement between said first assembly and second assembly.

11. The adapter of claim 9 wherein extending mechanical bosses on said first assembly are configured to insert into and interlock with multifaceted recesses of said second assembly in only a single orientation.

12. The adapter of claim 11 , wherein said first assembly and said second assembly comprise a plurality of mating pairs of slidably engageable electrical transfer connectors to transfer data and power between said first and second assemblies and one or more attached joints, and further comprise a pair of electrical actuation connectors to enable transfer of data and power on said plurality of electrical connectors;

wherein said electrical actuation connectors are a shorter length than said plurality of electrical transfer connectors; and

wherein said transfer of data or power via said electrical transfer connectors will not occur unless said electrical actuation connectors are engaged.

13. The adapter of claim 9 , wherein said first assembly and said second assembly comprise a plurality of mating pairs of slidably engageable electrical transfer connectors to transfer data and power between said first and second assemblies and one or more attached joints, and further comprise a pair of electrical actuation connectors to enable transfer of data and power on said plurality of electrical connectors;

wherein said electrical actuation connectors are a shorter length than said plurality of electrical transfer connectors; and

wherein said transfer of data or power via said electrical transfer connectors will not occur unless said electrical actuation connectors are engaged.

14. The adapter of claim 13 , wherein said electrical actuation connectors are spring-loaded axially extendable pins.

15. The adapter of claim 9 , further comprising a first optical encoder position sensor configured to detect an absolute position of said first assembly with respect to said second assembly via a position indicator mounted on one of said first or second assembly, wherein said position indicator includes a region of graduated varying optical contrast.

16. The adapter of claim 15 , further comprising a second optical encoder position sensor configured to detect an angular position of said first assembly with respect to said second assembly via discrete varying optical contrast.

17. The adapter of claim 9 , further comprising:

a motor configured to rotate said first assembly with respect to said second assembly;

a brake;

a magnetic brake release switch including a ferrous metal member,

wherein said magnetic brake release switch is configured to be activated by a removable external magnet to release said brake and allow relative movement between said first assembly and second assembly,

wherein extending mechanical bosses on said first assembly are configured to insert into and interlock with multifaceted recesses of said second assembly in only a single orientation;

wherein said first assembly and said second assembly comprise a plurality of mating pairs of slidably engageable electrical transfer connectors to transfer data and power between said first and second assemblies and one or more attached joints, and further comprise a pair of electrical actuation connectors to enable transfer of data and power on said plurality of electrical connectors;

wherein said electrical actuation connectors are a shorter length than said plurality of electrical transfer connectors; and

wherein said transfer of data or power via said electrical transfer connectors will not occur unless said electrical actuation connectors are engaged;

wherein said first assembly and said second assembly comprise a plurality of mating pairs of slidably engageable electrical transfer connectors to transfer data and power between said first and second assemblies and one or more attached joints, and further comprise a pair of electrical actuation connectors to enable transfer of data and power on said plurality of electrical connectors;

wherein said electrical actuation connectors are spring-loaded axially extendable pins that are a shorter length than said plurality of electrical transfer connectors; and

wherein said transfer of data or power via said electrical transfer connectors will not occur unless said electrical actuation connectors are engaged;

a first optical encoder position sensor configured to detect an absolute position of said first assembly with respect to said second assembly via a position indicator mounted on one of said first or second assembly, wherein said position indicator includes a region of graduated varying optical contrast; and

a second optical encoder position sensor configured to detect an angular position of said first assembly with respect to said second assembly via discrete varying optical contrast.