
Telepresence tourism represents a convergence of robotics, virtual reality, and high-bandwidth communication networks that enables individuals to explore distant locations through remotely operated physical avatars. The technology relies on sophisticated robotic platforms equipped with stereoscopic cameras, directional microphones, and environmental sensors deployed at tourist destinations, museums, natural landmarks, or cultural sites. These robots serve as physical proxies for remote users, who control them through VR headsets, motion tracking systems, and increasingly advanced haptic feedback devices. The sensory data captured by the robot—visual, auditory, and in some implementations, tactile and olfactory information—is transmitted in real-time to the user, creating an immersive experience that approximates physical presence. Advanced systems incorporate force feedback gloves, temperature simulation, and even air current generators to replicate the sensation of wind or ambient conditions, while low-latency 5G and fiber-optic networks ensure that the user's movements translate to the robot with minimal delay, preserving the sense of embodiment crucial to the experience.
The travel and tourism industry faces mounting pressure to address its substantial environmental impact, with aviation alone accounting for a significant portion of global carbon emissions. Telepresence tourism offers a compelling alternative for individuals unable or unwilling to travel due to physical limitations, financial constraints, environmental concerns, or geopolitical restrictions. Cultural institutions and heritage sites benefit from expanded accessibility, reaching global audiences without the physical wear associated with mass tourism, while simultaneously generating revenue from virtual visitors. The technology addresses the fundamental tension between the human desire for exploration and discovery and the urgent need to reduce our carbon footprint. For destinations vulnerable to overtourism—fragile ecosystems, archaeological sites, or small communities overwhelmed by visitor numbers—telepresence systems provide a mechanism to share these spaces without contributing to their degradation. The business model also enables new forms of guided experiences, where expert docents can lead groups of remote visitors through locations in real-time, creating shared social experiences despite physical distance.
Early commercial deployments have emerged in museums, where robotic telepresence systems allow remote visitors to explore galleries with docent-led tours, and in select natural environments where conservation concerns limit physical access. Research institutions have piloted programs enabling students to virtually visit archaeological excavations or marine environments through underwater robotic avatars, demonstrating educational applications beyond leisure tourism. The technology aligns with broader trends toward dematerialization of services and the growing acceptance of virtual experiences as legitimate alternatives to physical presence, accelerated by recent global events that normalized remote participation in previously in-person activities. As haptic technology advances and network infrastructure improves, the fidelity of these experiences continues to increase, suggesting a future where telepresence tourism becomes a mainstream option rather than a novelty. The integration of artificial intelligence to enhance navigation, automatic framing of points of interest, and even predictive movement based on user intent promises to make these systems more intuitive and accessible, potentially democratizing access to the world's most remarkable places while simultaneously protecting them from the impacts of physical tourism.
Spinoff from ANA Holdings dedicated to robotic avatars for travel.
Robotics company developing remote control robots with haptic feedback.
Organizes the XPRIZE Healthspan, a $101M competition to restore muscle, cognitive, and immune function in older adults.
Developing general-purpose space robots for on-orbit servicing and assembly.
Developing VR-based teleoperation software for robotic arms.