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The purpose of this study is to analyze the robot trends of the next generation.

This paper is divided into two sections: the key modern technology on which Europe's robotics industry has built its foundation is described. Then, the next key megatrends were analyzed.

Artificial intelligence (AI) and robotics are technologies of major importance for the development of humanity. This time is mature for the evolution of industrial and service robots. The perception of robot use has changed from threading to aiding. The cost of mass production of technological devices is decreasing, while a rich set of enabling technologies is under development. Soft mechanisms, 5G and AI have enabled us to address a wide range of new problems. Ethics should guide human behavior in addressing this newly available powerful technology in the right direction.

The paper describes the impact of new technology, such as AI and soft robotics. The world of work must react quickly to these epochal changes to enjoy their full benefits.

The paper discusses commercial cleaning robots available on the market. It introduces Gecko, a virtual prototype of a cleaning robot. Gecko has been conceived, assembling mainly standard components, and the actual behaviour in running conditions is shown by using consistent digital mock ups: Gecko is able to fully clean and sanitise floors, walls and ceilings. To comply with health needs, the robot cleans surfaces using steam. Details on abilities and components are provided. The wall sustentation is guaranteed by four suction cups. The path planning allows a 2D Cartesian motion. To simplify the robot control, innovative “automatic suspensions” are integrated in the sustain and actuation system. Finally, other possible applications fields for such a robot are discussed.

To present a new special explosive ordnance disposal (EOD) robot designed to operate onboard airplanes.

The design approach adopted is multidisciplinary: mechanical and control architectures are conceived simultaneously. Modularity and lifecycle are considered. Motion and EOD tasks are controlled in tele‐operation.

A new EOD robot was designed in detail and it is ready to be built. A dynamic simulator has been written and set‐up, including a virtual reality module. The simulator is used to define the control logics. Simulation results are satisfactory. The simulator can be used as a training platform for the bomb squads.

The intent to keep the cost of the robot low conditioned the selection of the materials. Only aluminium and standard composites (like carbon fibers composites) have been used. A higher degree of freedom of the arm could increase the usability of the system; to limit the cost, the degree of freedom was limited to seven. A decision support system based on an expert system interfaced with the simulator could improve the performance of the system.

A new EOD robot will be built and commercialised soon by the industrial partner Ansaldo Ricerche.

The EOD robots available for use inside aircrafts are discussed. A new system named AirEOD is presented, including mobile platform, dexterous arm and all related design and control issues.

The aim of the research is to design, build and test a robot able to autonomously execute slope consolidation tasks.

A multidisciplinary approach has been adopted to solve the problem: mechanical and control architecture have been conceived simultaneously. Modularity and lifecycle are considered. The robot can climb by means of four legs and two ropes. The drilling system is hosted onboard. Drilling process is fully automated, motion can be controlled in tele‐operation.

The performance of the first prototype has satisfied the end‐user; new on‐site tests and improvements are planned.

Roboclimber is cumbersome; both robot transport and on‐site positioning are complex operations. Coordination between legs motion and ropes tensioning is a difficult task.

The system reduces operating costs and working time, while avoiding the human presence in unsafe and harsh environments.

Roboclimber is the first robot able to do heavy duty works on rocky walls

The paper describes co‐robotic devices, aiming at accomplishing surgical operations by remote overseeing and manipulation. The concept design of a modular layout is presented, assuring body penetration by curved and twisted paths, with minimal impact. The fixture develops as an articulated snake‐like forearm, carrying a wrist and the pertinent effectors; scalpels, scissors, sewing rigs, cameras, etc. The fixture is a good example of a micro electro mechanical system, with force‐actuation and shape‐control being intrinsic properties. Different options are studied and the related basic operational characteristics are summarised and compared. The jointed forearm might include one to six blocks. Specifically, task‐oriented end‐effectors are considered, e.g. a self‐operating sewing rig, able to operate with a single thread. The robot co‐operation will drastically modify surgery practice, giving freedom from anthropocentric bounds; the paper introduces such opportunities, with comments on typical control strategies and hints on actual performance, inferred by testing on virtual reality and digital mock‐ups.