Integration
Electronics and integration are the principal
themes at SystematIC design. Not just integrating as many
components as possible on chip; it is also about integrating
customer specifications into working silicon, about chips that
change your life too. Several of our recent designs were focused
on chips that help save power or increase safety. Our designs make
a difference! Several of our designs for large semiconductor
manufacturers are currently mass-produced and are applied in
consumer and automotive products.
In a company, interpersonal connections are
important. No design engineer can afford to be a lone wolf.
Cooperation with colleagues and customers is indispensable to
successfully progress from vague concept to a satisfying product.
This is integrated in our company culture. We have an open,
positive atmosphere in which people welcome new ideas, work
together rather than compete, and where the threshold to engage in
discussion is very low.
Fields of activity
SystematIC Design has a considerable base of
international customers. Our activities are not geared towards a
specific type of circuits and hence we can design (and have
designed) integrated circuits for a wide range of applications and
markets. Our designs include (but is not limited to) a wide
variety of dc-dc converters, crystal oscillators, magnetic,
optical, capacitive, X-ray, and temperature sensors, and RF
front-ends. We have experience in both consumer, space, and
automotive IC design.
Design activities: our core business
The principles of (analog) signal processing
are largely independent of the technology that is used for
implementation. In our company, we design in every possible
technology: MOS, bipolar, BiCMOS, high-voltage, low-voltage,
Silicon-on-Insulator and SiGe. It rarely happens that the
technology in two projects is the same. For a designer, it is
ideal when he/she can choose which technology would be most
appropriate. Usually, however, the choice is determined by the
price of the intended final product, or simply by what is
available. Given a technology, we carefully assess its qualities
and determine how these interact with the demands on the signal
processing.
Before a chip is ripe for mass production, a
lot of steps have to be taken. We support our customers during
many of these steps. Our first task is to determine whether it is
feasible to satisfy the customer demands. There can be “hard”
physical boundaries which make it impossible to realize the
required functionality – after all, the laws of the universe
cannot be violated. Ultimately, noise, speed (bandwidth), and the
maximum levels of signals determine the signal processing
capabilities of a chip. Practically, “soft”
constraints are equally important. These can be of a technical
nature, such as chip area, supply voltage or current, but also
include commercial aspects, such as price and time-to-market.
In the feasibility study, it becomes clear
whether the envisioned chip can be implemented and if so, what
system solution would be most appropriate and what the
requirements are on the system building blocks. After this, the
circuit design of the building blocks can commence. Usually, the
most challenging circuits at the core of the system are designed
first, while the more common circuits are tailored to support the
core. Many of our designs involve sensors. Sometimes, even small
changes in the design of the sensor can radically simplify the
read-out electronics and boost overall functionality. This means
that good knowledge of physics is also an important quality. It is
important to be able to connect to both system and physics level.
The design of a chip, as explained before, is
more than just drawing schematics. We feel that the implementation
is so important, that the designer of a circuit should also be
involved in the layout phase of his/her circuit. When the layout
is finished, it is sent to a foundry for fabrication: the moment
of “tape-out”.
IC processing usually takes between four weeks
and three months, depending on the foundry and the priority of the
design. After this, the chips are tested to see if they are
functional, and if they meet the specifications. Due to our
widespread connections in the semiconductor industry, the projects
at our company are varied in nature. In our own laboratory,
functional measurements on a small number of chips can be
performed. For specialized measurements, or for qualification for
production, external or customer test facilities are used.
It is a long, steep and slippery road that
connects initial idea to commercially available product. Therefore
we are proud that numerous of our designs are currently
mass-produced. The application areas of our designs are quite
diverse and include communication devices, automotive and power
electronics.
Facts, figures, and people
SystematIC Design is a young company, founded
in 1998. Its true capital is its employees. Currently, there are
twelve designers, two of which hold a Ph.D. degree. Our company is
complemented by a variable number of students that perform
practical work or graduation work at MSc or BSc level under our
guidance. The company culture is nonhierarchical and informal,
which is essential to be innovative. A designer who serves a
customer is backed by an entire company. Our strength is in our
sharing of experience and ideas.
Our expectations from colleagues are reflected
by the demands customers impose on us. We need creative,
open-minded people that like to devise solutions for our
customers. A passion for analog electronic circuit design is
required, and the will to team up with others to solve problems.
Technical ambition, a scientific approach, flexibility, and
tenacity are also important. We are always looking for new
colleagues that fit this picture: people that truly like to be an
engineer.
Interested?
If our story has aroused your interest and you consider working for SystematIC
Design, then contact us for an interview, either by phone or e-mail.
We look forward to meeting you.
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Microphotograph of DVD optical readout chip
Generating ideas
Layout of a temperature sensor chip
Prototype on a testboard (currently mass-produced)
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