Daily Technology
·23/01/2026
The development of humanoid robots has accelerated rapidly, capturing the attention of technologists, investors, and the broader public. Despite the impressive demonstrations – such as robots performing complex movements like kung-fu and parkour – significant challenges remain before these machines can reliably handle practical, everyday tasks at scale.
Robots excel in controlled laboratory environments, yet their real-world deployment faces critical gaps. Jake Loosararian, CEO of Gecko Robotics, identifies deployment as the primary challenge: policymakers and businesses expect significant impacts from robotics, but the necessary data and reliability for diverse environments are not yet established.
For effective deployment, robots require access to real-time datasets from their operating environments. Gathering these datasets is essential to move beyond staged demonstrations. As Loosararian notes, real-world data fosters robust machine learning models and prepares robots for unexpected variables they may encounter outside laboratories.
Daniela Rus, director of MIT’s Computer Science and Artificial Intelligence Laboratory, highlights a vital disparity: while robots can perform tasks like folding laundry or loading dishwashers in a lab, replicating this economically and efficiently in homes and businesses comes at significant cost. Key advancements are needed in sensing technology and AI models for robots to interpret and interact with their environments flexibly and autonomously.
Improved perception, through advanced sensors and algorithms, will allow robots to recognize objects and adapt to new scenarios without explicit programming. This breakthrough is necessary for robots to handle the unpredictability inherent in everyday human environments.
Shao Tianlan, CEO of Mech-Mind, underscores the importance of intuitive learning. He argues that demonstration by human coworkers is the most effective teaching method. This approach mirrors how humans train each other and accelerates integration in environments such as factories and logistics centers.
Tianlan also observes that humanoid robots do not require extremely advanced general intelligence to perform useful industrial and service tasks. He predicts broader adoption in tasks requiring pattern recognition and repetition before tackling the complexity of unconstrained public settings.
One of the main issues slowing widespread deployment is the reliance on teleoperation—where human operators control robots remotely, especially for tasks that exceed current autonomous capabilities. Loosararian refers to this as the industry's “dirty little secret." Transparency about the degree of autonomy is essential for user trust and setting realistic expectations for businesses and consumers.
Companies such as Tesla and Figure are investing in scalable humanoid robot production. Bold claims suggest these machines may become transformative across industries. However, as of now, most robots operate in tightly managed conditions rather than autonomous, real-world settings. Real breakthroughs will depend on advancements in environmental learning, perception, and intuitive human-robot collaboration.
In summary, while humanoid robots display remarkable skills during demos, their widespread adoption will hinge on technical advances in deployment, sensing, and collaborative learning, together with industry-wide transparency in capability reporting.









