WE TURN BIG IDEAS INTO REALITY WITH HUMANOID ROBOTS!
Come along for the ride and discover what propels us forward!
WHAT DO WE DO?
We’re designing a Humanoid Robot to send to space by using the exact instruments meant to be used by humans.
In our club, we aim to utilize precise instruments specifically designed for human use, ensuring seamless integration with existing space technologies. Through collaborative efforts and hands-on projects, we aim to pioneer advancements in robotics, enabling our humanoid creation to operate effectively in the challenging conditions of outer space. With a strong emphasis on technical excellence and ingenuity, our goal is to develop a humanoid robot capable of undertaking complex tasks typically reserved for human astronauts, thereby expanding the horizons of space exploration.
OUR
TIMELINE.
We have created a tentative 3-year timeline outlining the club's goals. By the end of these 3 years, we aim for our robot to walk decently, lift some payload, and start performing space-related tasks.
Year.
Robot Legs ⏫
01
In the first year, we'll focus on constructing the robot's legs. This involves careful planning and precise engineering to ensure they can support the robot's weight. Once built, we'll work on making the robot walk stably through extensive testing and iterative improvements. Our goal is for the robot to take its first stable steps by year's end.
02
Robot Legs ⏫ ⏫
Our next goal is to enhance the robot's legs to walk with stability on uneven surfaces. This preparation is crucial for the rough and varied terrains it might encounter in extraterrestrial environments. This phase will involve rigorous testing and refinement to achieve reliable performance in challenging terrains, ultimately preparing the robot for the unpredictable conditions of outer Earth environments.
Robot Arms ⏫
This year, we will also establish a new team dedicated to developing the robot's arms. Their objective will be to design and construct arms that operate with stability and precision. This team will focus on ensuring the arms can handle various tasks and movements required for the robot's functionality. By the end of the year, we aim to have the arms working in harmony with the rest of the robot, ready for further integration and testing.
Computer Vision & AI ⏫
This year, we will integrate computer vision and AI into the robot, enabling it to move autonomously through obstacle courses. The vision system will help the robot perceive and interpret its surroundings, while AI will optimize its movements and decision-making. Our goal is for the robot to navigate and complete obstacle courses autonomously by year's end, demonstrating its advanced capabilities.
03
Robot Legs ⏫ ⏫ ⏫
This year, we will enhance the robot's leg stability against external forces. We'll use stronger materials, optimize leg joints, and add shock-absorbing mechanisms. Advanced control algorithms will help the robot adjust in real-time, maintaining balance. Extensive testing in simulated environments will validate our improvements, ensuring reliable operation in challenging conditions.
Robot Arms ⏫ ⏫
This year, we will focus on enabling the robot's hands to achieve precise movement and grip, allowing them to pick up and manipulate objects with human-like dexterity. We will enhance the mechanical design for greater control and flexibility, and develop advanced algorithms to fine-tune the hand movements. Rigorous testing will ensure the hands can handle a variety of objects with accuracy and reliability. By year's end, the robot's hands will be capable of performing intricate tasks similar to those done by humans.
Computer Vision & AI ⏫ ⏫
This year, we will incorporate decision-making capabilities into the robot using AI and computer vision to enhance its walking and hand movements. By integrating these technologies, the robot will be able to analyze its environment and make intelligent choices for navigating and manipulating objects. Our goal is to achieve a higher level of autonomy and precision in the robot's actions.
Space Features ⏫
We will begin training the robot to operate within a spaceship, adapting its systems for low-gravity environments and ensuring efficient navigation and task performance in cramped conditions. Our goal is to prepare the robot for seamless integration into space missions, handling operations and maintenance with ease. By the end of the third year, we aim to have a highly capable robot ready for rigorous testing in simulated space environments.
OUR
PROGRESS.
Even as a newer club at Purdue, we have made significant progress, emerging as one of the fastest-growing organizations on campus. We have received substantial support and appreciation from Purdue leadership, industry partners, and students alike.
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01
Applauded by 3 Deans, 4 Heads of Department, and Top Purdue leadership
We recently met with the deans of the engineering, polytechnic, and science departments, all of whom were very supportive of our club and enthusiastic about our initiatives. They expressed their admiration for the work we are doing and emphasized the importance of our activities.
02
Presented our work at conferences like RISE (biggest robotics conference in the Midwest).
We had a booth at the RISE Expo where we presented our work to attendees from all over the country. We shared information about our club with a diverse audience, including professors, industry professionals, and students. Many visitors were impressed by our projects and initiatives, leading to a significant number of new members joining our club that day.
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03
Secured sponsorships from all relevant engineering departments and industries, raising significant funds in a very short time.
We have secured significant sponsorships from engineering departments and industries, raising substantial funds quickly. This support enables us to acquire advanced materials, equipment, and resources for our project while covering operational costs. The sponsorships have also established valuable industrial connections, providing members with unique opportunities beyond building a humanoid robot, such as internships and career prospects. Learn more.
04
Studied the HUBO Robot to gain valuable insights for our humanoid robot.
We analyzed the mechanical and structural aspects, which provided us with a deeper understanding of its functionality. We successfully fixed the robot's legs and fingers, restoring crucial mobility and dexterity. Additionally, we examined the underlying code that controls the HUBO Robot, which offered valuable insights into programming and control algorithms. This comprehensive study and hands-on experience with HUBO significantly enhanced our knowledge to help develop our own robot.
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05
Have 6 official faculty advisors (average of <2 faculty advisors in other organizations)
We have six faculty advisors from all engineering departments, providing specialized guidance to help us achieve our goal of creating a humanoid robot from scratch. Their combined expertise in mechanical engineering, electrical engineering, computer science, and materials science is crucial for addressing the project's complexities. Their support enhances our technical capabilities and inspires our team to strive for excellence. Learn more.