In the previous chapter, we discussed that the true competitors in robotics competitions are not the robots but the students behind them. The robot may perform the visible actions on the field, but every movement reflects months of human effort, planning, and decision-making. Once we recognise this, another question naturally follows. How do these students prepare for competition? Is building the robot enough, or does success require the same kind of dedication, discipline, and practice that we associate with competitive sports? When I first became involved in robotics competitions, I assumed that most of the work lay in designing and building the robot. Over time, however, I realised that building the robot is only the beginning. A successful robotics team spends months refining designs, solving unexpected problems, practising with the robot, analysing performance, and constantly searching for ways to improve. The robot evolves, but so do the students. The more I reflected on this process, the more familiar it seemed. Athletes preparing for a major tournament also spend far more time training than competing. They practise the same skills repeatedly, learn from failures, improve their techniques, and gradually build the confidence needed to perform under pressure. Although the activities are very different, the journey of preparation appears remarkably similar. In this chapter, we explore that journey. Rather than focusing on what happens during the competition itself, we will look at the weeks and months beforehand; the planning, practice, discipline, resilience, and continuous improvement that prepare a robotics team for competition. 5.1 Preparation Begins on Day One For athletes, preparation does not begin on the day of a competition. A marathon runner trains for months before race day. A cricket team spends weeks practising before a tournament. A tennis player plays countless practice matches before stepping onto Centre Court. By the time spectators watch the competition, most of the hard work has already been completed. The same is true in robotics competitions. Preparation begins the moment the challenge for the competition is announced. Every year, there is a new challenge, which we fondly call it as a “game.” From that day onwards, every discussion, every sketch, every design decision, and every practice session becomes part of the team’s preparation for competition. The first step is understanding the game itself. Teams study the game manual carefully, not simply to learn the rules but to identify opportunities, limitations, and possible strategies. They analyse how points are awarded, which tasks are likely to be most valuable, how much time is available during a match, and what type of robot would be most effective. Only after this analysis do teams begin designing their robot. They brainstorm ideas, create sketches, develop CAD models, build prototypes, write software, assemble mechanisms, and test each component repeatedly. Every stage presents new challenges. A mechanism that appears perfect on paper may fail during testing. A software routine may not work as expected. A sensor may produce unreliable readings. Each problem forces the team to rethink, redesign, and improve. Unlike a classroom assignment, there is rarely a single correct answer. Different teams often arrive at completely different solutions to the same challenge. Some build simple robots that perform a few tasks exceptionally well, while others attempt more complex designs capable of performing multiple tasks. Every decision involves balancing ambition, reliability, available time, and the team’s own strengths. This process reminded me of coaches preparing a team for an important sporting event. Long before the first whistle is blown, they study their opponents, analyse their own strengths, decide on a style of play, and prepare accordingly. By the time the competition begins, the strategy has already been developed through weeks of careful planning. Robotics teams follow a remarkably similar path. Long before the opening match, they have already spent countless hours planning, designing, building, testing, and refining their robot. Competition day is simply the moment when months of preparation are put to the test. 5.2 Practice Makes Performance Once the robot is built, the focus shifts from engineering to performance. Just as cricketers spend hours in the practice nets before a tournament, robotics teams spend countless hours on a practice field learning to operate their robot effectively. The first practice sessions are rarely smooth. Tasks that appeared simple during the design stage often prove surprisingly difficult on the field. Picking up a game piece consistently, aligning accurately with a scoring zone, avoiding obstacles, or completing a sequence of actions within the time limit all require repeated practice. The team soon discovers that a robot capable of performing a task is not necessarily a robot capable of performing it reliably under match conditions. Athletes understand this well. A batsman may know how to play a cover drive, but still spends hours in the nets perfecting timing and footwork. A tennis player may know how to hit a forehand, but that does not mean every shot lands exactly where it is intended. Practice is not about learning a skill once; it is about performing that skill consistently, even under pressure. The same is true in robotics competitions. Drivers repeat the same manoeuvres over and over again until controlling the robot becomes almost instinctive. They practise collecting game pieces from different positions, scoring from different angles, recovering when the robot becomes misaligned, and completing tasks within the match time. Meanwhile, programmers fine-tune the software, mechanical team members strengthen or redesign mechanisms that fail during testing, and the entire team looks for ways to improve performance. Every practice session reveals another opportunity to become better. This process is rarely glamorous. It often involves repeating the same task dozens of times, making small adjustments, and trying again. Progress is usually measured in seconds saved, movements made smoother, or mistakes avoided. Yet these seemingly small improvements often determine the outcome of a closely contested match. Over time, both the robot and the team become more reliable. Drivers develop confidence, communication becomes more efficient, and the robot performs more consistently. By the time the competition begins, the students are no longer learning how to operate the robot; they are learning how to compete with it. 5.3 Discipline Beyond the Competition One of the biggest misconceptions about robotics competitions is that students spend only a few days building a robot before travelling to an event. In reality, preparing for a competition requires months of sustained commitment. Once the game is announced, the team’s routine changes. After school, weekends, and even holidays are often devoted to designing, building, programming, testing, and practising. Progress rarely happens according to a fixed schedule. If a major design problem appears a week before the competition, the team cannot simply postpone it. Everyone works together until a solution is found. Athletes experience a similar reality. A swimmer may spend several hours in the pool every day. A badminton player repeatedly practises the same strokes until they become second nature. A marathon runner follows a carefully planned training schedule over many months. Success on competition day is built upon countless hours of disciplined preparation that few spectators ever see. The same discipline is expected in robotics competitions. Team members must arrive on time for meetings, complete the tasks assigned to them, and coordinate their work with others. If the mechanical team falls behind, programmers may have no robot on which to test their software. If the programmers are delayed, the drivers lose valuable practice time. Every member depends on everyone else. Perhaps the greatest lesson is that excellence is rarely achieved through talent alone. Whether in sport or robotics, consistent success comes from showing up every day, practising with purpose, learning from mistakes, and continuing to improve even when progress seems slow. By the time the competition begins, the robot reflects not only engineering skill but also months of discipline, commitment, and perseverance. In many ways, these are the very qualities that define successful athletes. 5.4 Continuous Improvement One lesson that robotics competitions teach exceptionally well is that perfection is never achieved in a single attempt. Every practice session and every match reveal new opportunities for improvement. A mechanism may be too slow, a driver may lose a few seconds while collecting a game piece, or the robot may not behave as expected under certain conditions. Rather than accepting these shortcomings, teams analyse them carefully and look for ways to improve. This process is very similar to the way athletes prepare. After every match, coaches and players review what went well and what could have been better. Cricket teams analyse batting and bowling performances, football teams review match footage to study tactics and positioning, and tennis players examine their unforced errors and serving accuracy. Every competition becomes a learning experience that shapes the next training session. Robotics teams adopt exactly the same mindset. After each practice match, students discuss what worked well and what did not. Drivers describe situations where controlling the robot was difficult. Programmers examine software logs to identify delays or unexpected behaviour. The mechanical team checks for loose components, excessive wear, or mechanisms that need strengthening. Sometimes a small adjustment is enough. At other times, an entire strategy has to be reconsidered. I experienced this firsthand during the 2023 FGC® competition. The game revolved around collecting two types of game balls. The smaller ones were called “Hydrogen Balls,” while the bigger ones were called “Oxygen Balls.” Before the competition, we designed our robot to collect both types of balls efficiently, and much of our design and practice was based on this strategy. However, after our initial matches, we realised that the strategy was not working as effectively as we had expected. Collecting the Oxygen Balls was taking more time than anticipated and reducing our overall scoring efficiency. After carefully analysing our performance, we made a bold decision. Instead of trying to collect both types of game pieces, we redesigned the robot so that it specialised in collecting only the Hydrogen Balls. Although this meant giving up one aspect of the game, the simpler design made the robot faster, more reliable, and far more effective at the task we had chosen to prioritise. The redesign required changes to the mechanical system, modifications to the software, and further testing before we returned to the field with a robot that was better suited to the realities of the competition. Such mid-competition adjustments are common in sport. Successful teams are willing to change their plans when experience shows that a different approach offers a better chance of success. A cricket captain may change the batting order after assessing the pitch conditions. A football coach may alter tactics at half-time after recognising the opponent’s strengths. The original strategy is only a starting point. Success often depends on recognising when circumstances demand a different approach and having the courage to make that change. One of the most valuable lessons that both robotics competitions and sport teach is that mistakes are not failures; they are opportunities to improve. A robot that breaks during practice has not necessarily failed, but it has revealed a weakness while there is still time to fix it. Likewise, a strategy that performs poorly is not a dead end; it provides valuable information that helps the team make better decisions. In the same way, athletes use every training session and every competition to identify weaknesses before the next challenge. Over time, these small improvements accumulate. The robot becomes more reliable, the drivers become more confident, communication becomes clearer, and the team develops greater trust in one another. None of these improvements happens overnight. They are the result of repeated observation, careful analysis, and a willingness to keep learning. This commitment to continuous improvement is one of the strongest similarities between robotics competitions and competitive sport. In both, success rarely belongs to the team that feels it is perfect from the beginning. More often, it belongs to the team that is willing to learn, adapt, and improve faster than everyone else. 5.5 Looking Ahead By now, the similarities with sport have become increasingly clear. Robotics competitions demand months of preparation, disciplined practice, teamwork, resilience, and a commitment to continuous improvement. These are the same qualities that coaches expect from athletes preparing for major competitions. Of course, preparation alone does not make an activity a sport. The next question is equally important: What skills do participants actually develop? Traditional sports are often praised for developing physical fitness, teamwork, leadership, discipline, resilience, and decisionmaking. Robotics competitions are also recognised for helping students grow, but are the skills they develop fundamentally different, or do they overlap in surprising ways? The next chapter explores this question by comparing the skills developed through robotics competitions with those developed through traditional sports.