TY - JOUR
T1 - Testing the Waters: Design of Replicable Experiments for Performance Assessment of Marine Robotic Platforms
AU - Saggini, Eleonora
PY - 2015
Y1 - 2015
N2 - Robotics is becoming part of our daily life through home automation
(called domotic) and assistive applications that are taking place in habitations,
up to industrial and service employments. With this strict cooperation
between humans and robots, it is of absolute necessity to assess the
robotic systems’ capabilities and performance to ensure safety and reliability
according to actual and significant criteria and parameters. Within this context,
there are delays in technology transfer from research frameworks toward
actual applicative scenarios. These delays are caused by the lack of methodologies
and standardized procedures for the experiment execution and result comparison.
A further restraint to the needed process of technology transfer is due to the
inability to understand the actual capabilities of the systems and to be aware and
confident (or not) about what they can be realistically employed for. In many
cases, this can also turn into the inability to define specific regulations for the
employment of robotic platforms to comply with the current laws. This is the case
for marine robotics. Tethered vehicles [e.g., remotely operated vehicles (ROVs)]
are considered part of the vessel equipment when they are
operated from a ship (because of the physical connection provided
by the cable). Conversely, whenever autonomous systems,
such as unmanned surface vehicles (USVs) or
autonomous underwater vehicles are commanded through an
acoustic or Wi-Fi/radio communication link, they are considered
as navigating platforms and are subject to the regulation
in force. For the commercial employment of these vehicles, it
is then necessary to strongly assess the vehicle’s capabilities in
a standardized way, to guarantee the operating performance
and evaluate limitations of the target system.
AB - Robotics is becoming part of our daily life through home automation
(called domotic) and assistive applications that are taking place in habitations,
up to industrial and service employments. With this strict cooperation
between humans and robots, it is of absolute necessity to assess the
robotic systems’ capabilities and performance to ensure safety and reliability
according to actual and significant criteria and parameters. Within this context,
there are delays in technology transfer from research frameworks toward
actual applicative scenarios. These delays are caused by the lack of methodologies
and standardized procedures for the experiment execution and result comparison.
A further restraint to the needed process of technology transfer is due to the
inability to understand the actual capabilities of the systems and to be aware and
confident (or not) about what they can be realistically employed for. In many
cases, this can also turn into the inability to define specific regulations for the
employment of robotic platforms to comply with the current laws. This is the case
for marine robotics. Tethered vehicles [e.g., remotely operated vehicles (ROVs)]
are considered part of the vessel equipment when they are
operated from a ship (because of the physical connection provided
by the cable). Conversely, whenever autonomous systems,
such as unmanned surface vehicles (USVs) or
autonomous underwater vehicles are commanded through an
acoustic or Wi-Fi/radio communication link, they are considered
as navigating platforms and are subject to the regulation
in force. For the commercial employment of these vehicles, it
is then necessary to strongly assess the vehicle’s capabilities in
a standardized way, to guarantee the operating performance
and evaluate limitations of the target system.
KW - Marine robotics, path-following, benchmarks, performance metrics
KW - Marine robotics, path-following, benchmarks, performance metrics
UR - http://hdl.handle.net/10807/78760
U2 - 10.1109/MRA.2015.2448311
DO - 10.1109/MRA.2015.2448311
M3 - Article
SN - 1070-9932
SP - 62
EP - 71
JO - IEEE Robotics and Automation Magazine
JF - IEEE Robotics and Automation Magazine
ER -