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<center>[[File:Iroboticslogo.png|400px]]<span style="font-size:35px"> '''Tech Wiki''' </span> </center> | |||
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This wikipage is a repository for advice, instructions and examples for building, coding destroying, and utilizing robots and computers to every extent possible. Here you can peruse, edit, and contribute to code and guides that help everyone build better projects. Navigate our current pages using the guide below. | |||
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===[[Robosubs]]=== | ===[[Robosubs]]=== | ||
In the world of underwater exploration and competition, precision, innovation, and teamwork converge to create marvels of engineering. Our autonomous underwater submarine project, designed for the RoboNation RoboSub competition in 2025, exemplifies these qualities. Guided by our dedicated subteams—Mechanical, Electrical, and Autonomy—each brings a depth of expertise and innovative solutions to overcome the unique challenges of underwater robotics. | |||
[[image:image1.png]] | |||
<B> Mechanical Innovations: Crafting a Robust Framework</B> | |||
The mechanical team’s expertise is foundational to the structural integrity and operational efficiency of our submarine. Utilizing lightweight yet durable aluminum pipes for the frame, the design is tailored for endurance and maneuverability under the immense pressures of deep-water environments. | |||
Central to our propulsion system are the BlueRobotics T100 thrusters. These thrusters are meticulously chosen for their robust features: | |||
● Efficient brushless motors and compact design, ensuring high performance in tight spaces. | |||
● Strong UV resistant polycarbonate plastic and high-performance plastic bearings, optimal for corrosive saltwater conditions. | |||
● Counter-rotating propellers that provide stability and reduce the torque effects that can skew navigation underwater. | |||
The inclusion of 3D-printed motor mounts showcases our commitment to customized, precise engineering, allowing for optimized positioning and secure mounting of propulsion systems. | |||
<B>Electrical Excellence: Power and Perception</B> | |||
Our electrical subteam ensures that our submarine is not only powered efficiently but also smartly controlled. Central to their efforts are two specialized PCBs: | |||
● Hydrophone Noise Filtering PCB: Enhancing the submarine's auditory capabilities to detect and analyze underwater acoustics with minimal background interference | |||
● Controls PCB: A completed system that orchestrates the flow of power and data between the Nvidia Jetson Orin AGX and the submarine’s propulsion units through the Orange Cube controller | |||
The main components include: | |||
● 8 motors/thrusters | |||
● 8 ESCs | |||
● 2 batteries: 11.1V battery for the Jetson and the motors and a 7.4 V battery for the Orange cube and the servos | |||
● Orange CUBE | |||
● Nvidia Jetson Orin AGX | |||
● Hydrophones | |||
● Camera: ZedX with inbuilt IMU | |||
● 2 servos for smaller subtasks | |||
The submarine is equipped with the ZedX camera, a cutting-edge device for underwater computer vision. This camera is pivotal in performing visual tasks, such as object recognition and navigation aids, crucial for the dynamic and visually complex environments of the RoboSub competition. | |||
<B>Autonomy: Intelligent Navigation and Learning</B> | |||
[[image:image2.png]] | |||
The Autonomy subteam brings the submarine to life with sophisticated algorithms and software integration. Utilizing ROS2 - Noetic and various rosbags, the team crafts algorithms for autonomous navigation, decision-making, and interaction with the underwater environment. | |||
A custom ROS environment not only supports operational needs but also acts as an educational platform, equipping new team members with the necessary skills and understanding to contribute effectively. This continuous learning environment is vital for maintaining the longevity and innovation of our project. | |||
<B>Preparing for RoboSub 2025</B> | |||
As we prepare for RoboSub 2025, our team remains focused on refining our submarine’s capabilities through rigorous testing and iterative design. The competition not only provides a platform to showcase our technological advancements but also challenges us to push the boundaries of what is possible in autonomous underwater systems. | |||
<B>Conclusion</B> | |||
Our journey towards RoboSub 2025 is filled with challenges, learning, and immense potential. By leveraging the unique skills of our Mechanical, Electrical, and Autonomy teams, and integrating state-of-the-art technologies like the ZedX camera, we are paving the way for future innovations in underwater robotics. We invite the community to engage with us, share insights, and follow our progress as we dive into the depths of innovation and competition. | |||
We appreciate your interest and encourage questions and discussions about our project, as each interaction enriches our journey and prepares us better for the challenges ahead. | |||
===[[Projects]]=== | ===[[Projects]]=== | ||
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===[[Membership Starter Guide]]=== | ===[[Membership Starter Guide]]=== | ||
===[[iRobotics History]]=== | ===[[iRobotics History]]=== | ||
===[[Contributions]]=== | |||
==General iRobotics Resources== | ==General iRobotics Resources== |
Latest revision as of 00:04, 16 May 2024
This wiki is currently being reconstructed. We thank you for your patience
If you are a current or previous iRobotics member and wish to edit this page please contact irobotics exec and then and make edits as you wish! As a reminder adding to the Tech-Wiki earns active membership points.
This wikipage is a repository for advice, instructions and examples for building, coding destroying, and utilizing robots and computers to every extent possible. Here you can peruse, edit, and contribute to code and guides that help everyone build better projects. Navigate our current pages using the guide below.
iRobotics Teams
Combots
The main Combots page leads you to information such as 30LB teams, participation in competitionsm/results, alumni teams, resources and more!
- 1lb Combat Robotics
- Introduction and guide to 1lb combat robotics building
- 30lb Combat Robotics
- Introduction and guide to 30lb combat robotics building
Pacbot
The Pacbot page contains information regarding everything pacbot. Technical documents and more inside.
Robosubs
In the world of underwater exploration and competition, precision, innovation, and teamwork converge to create marvels of engineering. Our autonomous underwater submarine project, designed for the RoboNation RoboSub competition in 2025, exemplifies these qualities. Guided by our dedicated subteams—Mechanical, Electrical, and Autonomy—each brings a depth of expertise and innovative solutions to overcome the unique challenges of underwater robotics.
Mechanical Innovations: Crafting a Robust Framework
The mechanical team’s expertise is foundational to the structural integrity and operational efficiency of our submarine. Utilizing lightweight yet durable aluminum pipes for the frame, the design is tailored for endurance and maneuverability under the immense pressures of deep-water environments. Central to our propulsion system are the BlueRobotics T100 thrusters. These thrusters are meticulously chosen for their robust features: ● Efficient brushless motors and compact design, ensuring high performance in tight spaces. ● Strong UV resistant polycarbonate plastic and high-performance plastic bearings, optimal for corrosive saltwater conditions. ● Counter-rotating propellers that provide stability and reduce the torque effects that can skew navigation underwater. The inclusion of 3D-printed motor mounts showcases our commitment to customized, precise engineering, allowing for optimized positioning and secure mounting of propulsion systems.
Electrical Excellence: Power and Perception
Our electrical subteam ensures that our submarine is not only powered efficiently but also smartly controlled. Central to their efforts are two specialized PCBs:
● Hydrophone Noise Filtering PCB: Enhancing the submarine's auditory capabilities to detect and analyze underwater acoustics with minimal background interference
● Controls PCB: A completed system that orchestrates the flow of power and data between the Nvidia Jetson Orin AGX and the submarine’s propulsion units through the Orange Cube controller
The main components include:
● 8 motors/thrusters
● 8 ESCs
● 2 batteries: 11.1V battery for the Jetson and the motors and a 7.4 V battery for the Orange cube and the servos
● Orange CUBE
● Nvidia Jetson Orin AGX
● Hydrophones
● Camera: ZedX with inbuilt IMU
● 2 servos for smaller subtasks
The submarine is equipped with the ZedX camera, a cutting-edge device for underwater computer vision. This camera is pivotal in performing visual tasks, such as object recognition and navigation aids, crucial for the dynamic and visually complex environments of the RoboSub competition.
Autonomy: Intelligent Navigation and Learning
The Autonomy subteam brings the submarine to life with sophisticated algorithms and software integration. Utilizing ROS2 - Noetic and various rosbags, the team crafts algorithms for autonomous navigation, decision-making, and interaction with the underwater environment.
A custom ROS environment not only supports operational needs but also acts as an educational platform, equipping new team members with the necessary skills and understanding to contribute effectively. This continuous learning environment is vital for maintaining the longevity and innovation of our project.
Preparing for RoboSub 2025
As we prepare for RoboSub 2025, our team remains focused on refining our submarine’s capabilities through rigorous testing and iterative design. The competition not only provides a platform to showcase our technological advancements but also challenges us to push the boundaries of what is possible in autonomous underwater systems.
Conclusion
Our journey towards RoboSub 2025 is filled with challenges, learning, and immense potential. By leveraging the unique skills of our Mechanical, Electrical, and Autonomy teams, and integrating state-of-the-art technologies like the ZedX camera, we are paving the way for future innovations in underwater robotics. We invite the community to engage with us, share insights, and follow our progress as we dive into the depths of innovation and competition. We appreciate your interest and encourage questions and discussions about our project, as each interaction enriches our journey and prepares us better for the challenges ahead.
Projects
Legacy
A resource for previous iRobotics teams, such as MRDC and iRobotics VEX. Showcases the history of the previous teams and how-to guides!
Pages for iRobotics Members
Membership Starter Guide
iRobotics History
Contributions
General iRobotics Resources
Vendors
Software
Technical
Learn about the humble beginnings of iRobotics as a student organization! Starting with it's founding in 2013 up to current day. iRobotics has grown a lot over the years.