Next Month’s Focus electronica Plan your 2019
editorial; see our calendar on page 120
VOLUME 33 - NUMBER 9 Product Preview:
SMTAI, IMAPS, The ASSEMBLY Show, MD&M Minn.
THE GLOBAL HI-TECH ELECTRONICS PUBLICATION September, 2018
Robots Visually Inspect and Understand Objects
Cambridge, MA — Humans have long been masters of dexterity, a skill that can largely be credited to the
Nordson SONOSCAN launch- es Gen7™ acoustic micro-imag- ing system. Product previews begin on…
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Hanwha Raises the Bar for CAMtek
help of our eyes. Robots, meanwhile, are still catching up. Certainly there has been some progress: for decades,
robots in controlled environments, such as assembly lines, have been able to pick up the same object over and over again.
More recently, breakthroughs in computer vision have enabled ro- bots to make basic distinctions be- tween objects, but even then, they do not truly understand objects’ shapes, so there is little they can do after a quick pick-up.
Researchers from MIT’s Com- puter Science and Artificial Intelli- gence Laboratory (CSAIL) have made a key development in this area of work: a system that lets robots in- spect random objects, and visually understand them enough to accom- plish specific tasks without ever hav- ing seen them before.
CAMTek installs complete SMT line from Hanwha, sig- nificantly boosting through- put. EMS section begins on…
Page 18 This Month's Focus:
Test and Automation
Lucas Manuelli with a Kuka robot that uses an advanced computer vision system to pick up virtually any object.
Terahertz Clock Rates with Graphene
Dreseden, Germany — Graphene, an ultrathin material consisting of a sin- gle layer of interlinked carbon atoms, is a promising candidate for the nano- electronics of the future. In the- ory, the material could allow clock rates up to a thousand times faster than today’s sili- con-based electronics.
CyberOptics explores the shift to 3D optical inspection; CAMI verifies twisted pair cables with continuity test; Corelis applies boundary scan to PCBs with little space for con- ventional testing. Special fea- tures begin on…
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Scientists from the Helm- holtz Zentrum Dresden-Rossen- dorf (HZDR) and the University of Duisburg-Essen (UDE), in co- operation with the Max Planck Institute for Polymer Research (MPI-P), have shown for the first time that graphene can ac- tually convert electronic signals with frequencies in the giga- hertz (GHz) range into signals with several times higher fre- quency extremely efficiently. Today’s silicon-based electronic
components operate at clock rates of several hundredgigahertz, that is, they are switching several billion times per second. The electronics in-
The system, dubbed “Dense Ob- ject Nets” (DON), looks at objects as collections of points that serve as “vi- sual roadmaps” of sorts. This ap- proach lets robots better understand and manipulate items, and, most im- portantly, allows them to even pick
Continued on page 8
Trapping Light for Faster
Electronics
Graphene converts electronic signals in the gigahertz range to signals with several times higher frequency.
dustry is currently trying to access the terahertz (THz) range, i.e., up to thousand times faster clock rates. Graphene is a promising mate- rial, because it has high electrical conductivity and is compatible with all existing electronic technologies. Theory has long predicted that graphene could be a very efficient “nonlinear” electronic material, i.e., a material that can very efficiently convert an applied oscillating elec- tromagnetic field into fields with a
Continued on page 6
Karlsruhe, Germany — At Karlsruhe Institute of Technology (KIT), physics professor Thomas Schimmel and his team have developed a sin- gle-atom transistor, the smallest transistor worldwide. This quantum electronics component switches elec- trical current by controlled reposi- tioning of a single atom, now also in the solid state in a gel electrolyte. The single-atom transistor works at room temperature and consumes very little energy, which opens up en- tirely new perspectives for informa- tion technology.
Digitization results in a high energy consumption. In industrial- ized countries, information technolo- gy presently has a share of more than 10 percent in total power con- sumption. The transistor is the cen- tral element of digital data process- ing in computing centers, PCs, smartphones, or in embedded sys- tems for many applications from
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