INDUSTRIAL ROBOTIC PLATFORMS
Industrial robotic platforms are described. The robotic platform includes a universal platform configured to attach to interchangeable task-specific tooling systems and mobility systems. The robots may be mining robots, with a mining-specific tooling system attached to the universal platform, and configured for mining tasks. The platform is modular and may be used for other industrial applications and/or robot types, such as construction, satellite swarms, fuel production, disaster recovery, communications, remote power, and others. The robot may be included in a swarm or colony as part of an overall autonomous architecture. The robot may be part of an architecture having a colony or remote control center that communicates with and monitors the robots.
1 . amend the claims as shown below, by cancelling claim 1 and adding new claims 2 - 21 .
1 . (canceled)
2 . An autonomous digger bot for mining, the digger bot comprising:
a frame;
a mobility platform attached with the frame and configured to move the digger bot, wherein the mobility platform is one among a plurality of different mobility platform types with which the frame is configured to attach;
a digger payload stack configured to break a rock face or other environmental feature of the celestial body;
a universal platform stack supporting the digger payload stack, wherein the digger payload stack is one among a plurality of interchangeable different payload stack types that the universal platform stack is configured to support; and
a control system configured to operate the digger bot autonomously in a swarm robotic system to complete a collaborative mining objective.
3 . The autonomous digger bot of claim 2 , wherein the digger payload stack further comprises a robotic arm supporting the digger payload stack, the robotic arm having a plurality of articulable joints and linkages.
4 . The autonomous digger bot of claim 2 , wherein the digger payload stack comprises a drill or chisel.
5 . The autonomous digger bot of claim 2 , wherein the digger payload stack comprises a reciprocating or rotating blade.
6 . The autonomous digger bot of claim 2 , further comprising a sensor configured to map the rock face or other environmental feature.
7 . The autonomous digger bot of claim 2 , wherein the universal platform stack further comprises a first hardware module configuration specific to the digger payload stack, and wherein the first hardware module configuration is one among a plurality of other possible hardware module configurations that are specific to other payload stacks.
8 . The autonomous digger bot of claim 2 , wherein the universal platform stack further comprises a first software module configuration specific to the digger payload stack, and wherein the first software module configuration is one among a plurality of other possible software module configurations that are specific to other payload stacks.
9 . The autonomous digger bot of claim 2 , wherein the control system is further configured to autonomously:
establish communications with an autonomous sweeper bot through a colony communications network;
receive data related to the collaborative mining objective from the autonomous sweeper bot via the colony communications network; and
break the rock face or other environmental feature of the celestial body in response to receiving the data.
10 . An autonomous mining bot comprising:
a frame;
a mobility platform configured coupled with the frame and configured to move the mining bot, wherein the mobility platform is one among a plurality of different mobility platform types with which the frame is configured to couple;
a payload stack configured to perform a bot-specific mining task to interact with a rock face or other environmental feature of a celestial body;
a universal platform stack supporting the payload stack, wherein the payload stack is one among a plurality of interchangeable different payload stack types that the universal platform stack is configured to support; and
a control system configured to operate the mining bot autonomously in a swarm robotic system to complete a collaborative mining objective.
11 . The autonomous mining bot of claim 10 , wherein the payload stack further comprises a robotic arm having a plurality of articulable joints and linkages.
12 . The autonomous mining bot of claim 10 , wherein the payload stack comprises a digger payload stack or a sweeper payload stack.
13 . The autonomous mining bot of claim 10 , wherein the universal platform stack further comprises a first hardware module configuration specific to the payload stack, and wherein the first hardware module configuration is one among a plurality of other possible hardware module configurations that are specific to other payload stacks.
14 . The autonomous mining bot of claim 10 , wherein the universal platform stack further comprises a first software module configuration specific to the payload stack, and wherein the first software module configuration is one among a plurality of other possible software module configurations that are specific to other payload stacks.
15 . The autonomous mining bot of claim 10 , wherein the control system is further configured to autonomously:
establish communications with a second autonomous mining bot through a colony communications network;
receive data related to the collaborative mining objective from the autonomous second mining bot via the colony communications network; and
perform the bot-specific mining task in response to receiving the data, wherein performing the bot-specific mining task based on the data results in achieving the collaborative mining objective.
16 . An autonomous sweeper bot for mining, the autonomous sweeper bot comprising:
a frame;
a mobility platform attached with the frame and configured to move the sweeper bot, wherein the mobility platform is one among a plurality of different mobility platform types with which the frame is configured to attach;
a sweeper payload stack configured to collect broken rock face or other environmental feature of a celestial body;
a universal platform stack supporting the sweeper payload stack, wherein the sweeper payload stack is one among a plurality of interchangeable different payload stack types that the universal platform stack is configured to support; and
a control system configured to operate the sweeper bot autonomously in a swarm robotic system to complete a collaborative mining objective.
17 . The autonomous sweeper bot of claim 16 , wherein the sweeper payload stack comprises a rotating brush.
18 . The autonomous sweeper bot of claim 16 , further comprising a scraper or ramp, and wherein the sweeper payload stack is configured to sweep the broken rock face or other environmental feature onto the scraper or ramp.
19 . The autonomous sweeper bot of claim 16 , wherein the universal platform stack further comprises a first hardware module configuration specific to the sweeper payload stack, and wherein the first hardware module configuration is one among a plurality of other possible hardware module configurations that are specific to other payload stacks.
20 . The autonomous sweeper bot of claim 16 , wherein the universal platform stack further comprises a first software module configuration specific to the sweeper payload stack, and wherein the first software module configuration is one among a plurality of other possible software module configurations that are specific to other payload stacks.
21 . The autonomous sweeper bot of claim 16 , wherein the control system is further configured to autonomously:
establish communications with an autonomous digger bot through a colony communications network;
receive data related to the collaborative mining objective from the autonomous digger bot via the colony communications network; and
perform the sweeper mining task in response to receiving the first data, wherein performing the sweeper mining task based on the data results in achieving the collaborative mining objective.