A Soccer Bot Robotic League is a competition where teams design, build, and program robots to play soccer, either autonomously or through remote control. The challenge encourages participants to apply their knowledge of engineering, robotics, and artificial intelligence as they create robots capable of strategizing, moving, and scoring goals on the field.
There are two subcategories in footbalbot: Autonomous Footballbot and Wireless Control Footballbot.
Two main formats: remotely controlled robots and fully autonomous robots for advanced leagues.
Autonomous robot soccer: robots rely on sensors to locate the ball, navigate the field, and score goals without human control.
Manual/wireless control: teams operate their robots using wireless communication such as Bluetooth, RF, or Wi-Fi to score goals in a simulated soccer arena
– Robot design and construction
– Programming and Algorithm development
– Sensor integration
– Wireless control systems
– Mechanical engineering
– Teamwork and strategy
– FootballBot Kits
– Basic tools for assembly
– Ball and field setup
– Laptop (brought by the participants)
– Own internet (optional)
– Arduino IDE
Scoring System (per game):
• Goal = +5 point
• First to reach 10 points wins the game.
Ranking:
• Teams accumulate points across multiple games.
• The team with the highest total points is crowned the FootballBot Cup Champion.
• In the event of a tie, a sudden-death playoff match will determine the winner.
– Teams must program their robots using the Arduino IDE.
- Participants are required to bring their own laptops.
- Each team must bring its own FootballBot kit and perform a test drive during the allocated time.
- Specific time slots will be provided for each team’s test drive.
- Marshals will supervise to ensure fairness, originality, and proper use of equipment.
- The field will be a rectangular arena with two goals.
- Robots must chase and push the ball to score in the opponent’s goal.
- Each match consists of two rounds. Each goal is worth 5 points, and the first team to reach 10 points (two goals) wins the match automatically.
- Games will be played robot versus robot in a score-based format.
- Team rotations may occur depending on the tournament bracket system.
- Robots will be inspected for safe wiring and proper battery handling.
- Any misconduct, sabotage, or harassment will lead to immediate disqualification.
- Judges’ decisions are final and cannot be appealed.
- The next competing team will be allowed time to upload their program before their match begins.
- Teams will have a maximum of 10 minutes to upload their program and perform a quick test drive before their scheduled match.
• Reduced human risk: Robots operate in high-risk areas, minimizing potential firefighter injury or death.
• Reduced long-term costs: Robots help lower damage, operational downtime, and long-term expenses from large-scale fires.
• Emergency shut-off: Safety features such as emergency stop buttons allow immediate deactivation when needed.
• Long-lasting power source: Reliable batteries or onboard generators ensure extended operation during firefighting.
• Robust communication: Secure and stable links between robot and operator, possibly with redundant systems, maintain control in challenging environments.
• Visual cameras: High-definition cameras provide real-time feeds for situational awareness and precise operation.
• Obstacle avoidance: Sensors like LiDAR and ultrasonic devices detect and avoid obstacles in complex or low-visibility areas.
• Autonomous and remote control: Robots can be operated remotely and navigate semi-autonomously along pre-mapped or learned routes.
• Tracked systems: Offer excellent traction and stability for uneven terrain, stairs, and debris.
• Wheeled systems: Ideal for speed and manoeuvrability on flat surfaces such as roads or industrial floors.
• Legged systems: Provide versatility for climbing stairs and navigating unstructured environments.
• Heat resistance: Constructed from heat-resistant materials to prevent structural or component damage, with some models enduring up to 1000°C.
• Impact protection: Sturdy frames and internal shock absorption protect the robot from falling debris and collisions.
• Power and autonomy: Battery life determines operational duration, and autonomous navigation reduces the need for constant human control.
• Communication: Control systems must maintain reliable connections, even in signal-challenged environments, using technologies like 5G or mesh networks.
• Test skills: The robot uses sensors to track and chase the ball, testing the player’s close control and agility.
• Improve performance: Players must dodge and outmanoeuvre the robot to maintain possession, enhancing their football technique in an indoor environment.
• Intercept the ball: The robot’s main task is to follow the ball and attempt to “tackle” the player by making contact with it.
• Test agility and speed: Players aim to keep the ball away from the robot for a set duration while remaining within the play area.
• Adjustable difficulty: The robot operates at different speed settings (slow, medium, fast) to suit various skill levels.