WGU C951 TASK 2: DISASTER
RELIEF ROBOT| ACCURATE
VERIFIED | 2026 UPDATE
C951 Task 2: Disaster Relief Robot
Antonio Jenkins,
Western Governors University
08/08/2026
Section A: Disaster Environment
The scenario is articulated as follows: In the context of an Egypt minefield, a specialized disaster
relief robot, designated "Jenkins_Antonio_C951_Task_2", has been strategically deployed. This
region is extensively infested with landmines, each presumably containing several hundred
explosive devices, rendering the area extraordinarily hazardous for the residents of Egypt. The
robot's fundamental objective is to systematically identify these landmines, thereby facilitating
their subsequent deactivation by local experts on an individual basis. The simulation presents a
detailed portrayal of the robot traversing this perilous environment in its quest to detect
landmines. For the purposes of this simulation, the landmines are represented by two red
cylindrical objects.
Section B: Improved Disaster Recovery
Section A outlines the simulation in which the disaster relief robot is engaged in an exploration
of the terrain, actively searching for landmines. These landmines are visually represented as red
cylinders, with a total of two such cylinders featured in the simulation. Upon detection of a
landmine, the robot is programmed to alter the color of its sensor and emit a message to signal
the discovery. This technology is instrumental in assisting the residents of Egypt by pinpointing
the exact locations of the landmines, thus enabling their safe deactivation. The goal of this
endeavor is to ensure the safety of the Egypt population, empowering them to traverse these
minefields without fear and reclaim the usability of their land.
Section C: Architecture
The robot "Jenkins_Antonio_C951_Task_2" is modeled after the bubbleRob tutorial and is
equipped with two distinct sensors: a blue landmine detection sensor and a red proximity
sensor. The blue sensor is dedicated to identifying landmines and will change its color upon
detecting a landmine, symbolized as a red cylinder in this context. The red proximity sensor
plays a crucial role in the robot's navigation, alerting it to imminent collisions with objects and
prompting it to alter its path accordingly. This sensor is instrumental in safeguarding the robot
by significantly reducing the likelihood of damage or malfunction. On the other hand, the blue
landmine detection sensor provides vital data about the presence and locations of landmines
within the robot's current operational environment, thereby aiding individuals in the process of
landmine identification and subsequent neutralization.
Section D: Robots Internal Representation of the Environment
The "Jenkins_Antonio_C951_Task_2" robot, modeled after the bubbleRob tutorial, is equipped
with two distinct sensors: a blue sensor for landmine detection and a red sensor for proximity
RELIEF ROBOT| ACCURATE
VERIFIED | 2026 UPDATE
C951 Task 2: Disaster Relief Robot
Antonio Jenkins,
Western Governors University
08/08/2026
Section A: Disaster Environment
The scenario is articulated as follows: In the context of an Egypt minefield, a specialized disaster
relief robot, designated "Jenkins_Antonio_C951_Task_2", has been strategically deployed. This
region is extensively infested with landmines, each presumably containing several hundred
explosive devices, rendering the area extraordinarily hazardous for the residents of Egypt. The
robot's fundamental objective is to systematically identify these landmines, thereby facilitating
their subsequent deactivation by local experts on an individual basis. The simulation presents a
detailed portrayal of the robot traversing this perilous environment in its quest to detect
landmines. For the purposes of this simulation, the landmines are represented by two red
cylindrical objects.
Section B: Improved Disaster Recovery
Section A outlines the simulation in which the disaster relief robot is engaged in an exploration
of the terrain, actively searching for landmines. These landmines are visually represented as red
cylinders, with a total of two such cylinders featured in the simulation. Upon detection of a
landmine, the robot is programmed to alter the color of its sensor and emit a message to signal
the discovery. This technology is instrumental in assisting the residents of Egypt by pinpointing
the exact locations of the landmines, thus enabling their safe deactivation. The goal of this
endeavor is to ensure the safety of the Egypt population, empowering them to traverse these
minefields without fear and reclaim the usability of their land.
Section C: Architecture
The robot "Jenkins_Antonio_C951_Task_2" is modeled after the bubbleRob tutorial and is
equipped with two distinct sensors: a blue landmine detection sensor and a red proximity
sensor. The blue sensor is dedicated to identifying landmines and will change its color upon
detecting a landmine, symbolized as a red cylinder in this context. The red proximity sensor
plays a crucial role in the robot's navigation, alerting it to imminent collisions with objects and
prompting it to alter its path accordingly. This sensor is instrumental in safeguarding the robot
by significantly reducing the likelihood of damage or malfunction. On the other hand, the blue
landmine detection sensor provides vital data about the presence and locations of landmines
within the robot's current operational environment, thereby aiding individuals in the process of
landmine identification and subsequent neutralization.
Section D: Robots Internal Representation of the Environment
The "Jenkins_Antonio_C951_Task_2" robot, modeled after the bubbleRob tutorial, is equipped
with two distinct sensors: a blue sensor for landmine detection and a red sensor for proximity
