motive sector, Nvidia is the leader in AI
chipsets that are used to power computer vision technology, and many automotive companies use them along
with a wide variety of other sensors to
enable autonomous driving and advanced driver-assistance systems.
However, applications for full-sized
3D sensors are not limited to smartphones or other consumer devices;
the technology can be used for any
type of 3D scanning in which an object must be mapped with precision. Applications exist or are in
the works involving 3D printing,
design, mapping, object recognition, facial recognition, gesture-based control, and other industrial
or commercial applications.
Jae-Yong Lee, a venture capital in-
vestment manager with ReWired, a
$100-million robotic-focused venture
studio based in London, says he sees
great potential for the technology in
retail analytics. “If you could install
affordable [3D] sensors within a store
so you could really measure the traf-
fic—where the people are, where
they’re walking toward, where they
are hesitating—you could really opti-
mize how you display your items and
how you can redesign the store for
more sales.”
In the near term, the potential for
3D sensors beyond consumer devices
is likely to develop within the bur-
geoning autonomous vehicle market,
says Pier-Olivier Hamel, a product
manager with Leddartech, a Quebec,
Canada-based company that manu-
factures LiDAR technology for the au-
tomotive market. The company’s
technology is currently focused on us-
ing LiDAR to accurately capture the
3D profile of objects perceived by the
sensor, and making this technology
available to automobile OEMs and Ti-
er-One suppliers to classify objects
that can be used to train autonomous
and semi-autonomous driving sys-
tems. While the company is not focus-
ing on creating LiDAR technology for
smaller devices now, it certainly is a
possibility for the future.
“We can see with the miniaturiza-
tion of everything,” Hamel explains.
“I’m sure that there will be applica-
tions for personal devices and smart-
phones or augmented reality; those
are all possibilities.”
With all this activity, it is no sur-
prise the market for 3D sensors and
components is likely to rise. Tractica,
which released its 3D Imaging Hard-
ware and Software market study in
early 2016, projected the market for
3D imaging technology would reach
$24.9 billion globally by 2024, up
from $3.2 billion in 2014, which re-
flects a compound annual growth rate
(CAGR) of 23%.
Joshi, the study’s author, says
that while the $24.9-billion market
value may be overly bullish, as the
technology did not take off quite as
quickly as originally predicted, the
consumer and mobile market will
continue to be the largest sectors
for 3D imaging technology, accounting for about $10.1 billion of
the overall market by 2024.
Further Reading
3D Imaging Hardware and Software Market
to Reach $24.9 Billion by 2024,
Tractica LLC, January 14, 2016
http://bit.ly/2BDJIrF
Graham, L.A., Chen, H., Cruel, J., Guenter, J.,
Hawkins, B., Hawthorne, B., Kelly, D.Q., Melgar,
A., Martinez, M., Shaw, E., and Tatum, J.A.
High-power VCSEL arrays for consumer
electronics
http://bit.ly/2BECC69
What Is Time-of-Flight? – Vision Campus,
Basler AG, May 31, 2016
http://bit.ly/2BDKLrB
Keith Kirkpatrick is principal of 4K Research &
Consulting, LLC, based in Lynbrook, NY, USA.
© 2018 ACM 0001-0782/18/6 $15.00
In the near term,
the potential
for 3D sensors
beyond consumer
devices is likely
to develop in
the burgeoning
autonomous
vehicle market.
ACM
Member
News
A FASCINATION FOCUSED
ON SUSTAINABILITY
”I have always
been inclined
toward math,
and was
fascinated by
computers very
early on,” says
Carla Gomes, a professor of
computer science and the
director of the Institute for
Computational Sustainability at
Cornell University in Ithaca, NY.
“I have always known I would be
doing something around this.”
Gomes earned her master’s
degree in applied mathematics
from the Technical University
of Lisbon, Portugal in 1987,
and her Ph. D. in computer
science from the University
of Edinburgh, U. K., in 1993.
She did postdoctoral research
at the U.S. Air Force Research
Laboratory for five years before
joining Cornell University in
1998, where she has been ever
since.
Her main area of interest
lies at the intersection of
artificial intelligence (AI) and
operations research. Currently,
her focus is on computational
sustainability, an emerging
field that studies and develops
solutions to computational
problems for balancing
environmental, economic, and
societal needs for a sustainable
future. Gomes feels AI and
computer science can make a
real difference in addressing
sustainability challenges.
She explains, people
often think of sustainability
as referring solely to the
environment, but sustainable
development is about balancing
environmental, economic,
and societal issues, with the
ultimate goal of assuring the
well-being of current and
future generations. Gomes is
passionate about developing
intelligent systems that can help
across a variety of domains to
address this.
“If you inject computational
thinking and methodologies,”
Gomes says, “we can come up
with creative solutions to some
of the biggest challenges we are
facing today.”
—John Delaney