Humanoids and the Future of Crop Harvesting, Primarily by Machine

Overview: The evolution of technology hints at the impending increase in the use of humanoid robots in various sectors, including agriculture. Potentially, they can bring significant changes in crop harvesting, which has so far relied heavily on human labor. However, it requires careful analysis of the crossover points, where the use of robots becomes more cost-effective than hiring human laborers.

Evolution of the Labor Market: Agricultural productivity heavily depends on seasonal labor, making it expensive and sometimes unreliable. Over the past few decades, the cost of human labor in agriculture has increased by an average of 2.3% annually. The rising labor costs, coupled with a shortage of available workers, breeds inefficiencies. Humanoid robots present a viable solution to these issues. They are not reliant on seasonal changes and can work tirelessly to bring uniformity and efficiency in crop production.

The Crossover Point: Although the upfront cost of implementing robotic automation in crop harvesting is high, its potential in reducing long-term operational expenses cannot be overlooked. A recent study estimated that the use of robotic systems could reduce the overall operational detriments by around 20-25% within five years. The crossover point, where the total savings yearly will surpass the initial investment, is quickly approaching, owing to the rapidly declining cost of robotics and the continued labor cost inflation.

Future of Crop Harvesting: It is estimated that by 2040, nearly 70% all agricultural tasks will be automated. Besides replacing human labor, humanoid robots could potentially transform the way we farm. They offer precision agriculture, which involves observing, measuring, and responding to inter and intra-field variability in crops. Predictive abilities of advanced machine learning algorithms in these robots could enhance crop health and yield.

Technological Challenges: Deployment of humanoid robots faces a few obstacles, primarily due to the high-precision tasks they have to perform in contrast to their industrial counterparts. They require advanced vision systems and adaptive learning capabilities to harvest different crops that vary in size, shape, and ripeness. Today, robots can pick only about 21% of apples from trees without causing damage.

Key Takeaways:


About 3Laws Robotics: 3Laws Robotics aims to introduce safety and reliability into the rapidly evolving landscape of robotics. Their software, the 3Laws Supervisor, is being developed to support the applications mentioned above. It is centered around providing robust safety features with evidence of system robustness. The focus is on streamlining the certification process that often acts as a hurdle in the path of many robotics companies. Mathematical proofs for safety are integrated into the Control Barrier Functions (CBFs) technology that forms the backbone of 3Laws' software. Their clientele spans across industry sectors, from warehouse automation to human-robot interaction and dynamic environments. 3Laws also mitigates common issues like unnecessary e-stops or crashes and creates an environment where robots operate at their peak while maintaining safety. It is adaptable, making it flexible for alignment with a diverse range of platforms from mobile robots to cars, drones, and manipulators.

3Laws Robotics is a promising contender in the realm of next-generation safety solutions, capable of challenging traditional e-stop methods, and unlocking the full potential of robotics with dynamic predictive safety. It is safety certified for ISO 3691-4 and ISO 26262 standards.






News in Robot Autonomy

News in Robot Autonomy