At world R&D Headquarters in Kyoto, Japan, Omron creates new smart
technologies (as seen in compact, lightweight, easy, efficient,
fast, and optimal solutions) that, unlike conventional sensing technologies,
are not limited strictly to data input function, but rather integrate
the areas of sensing & control to output high-value information
for subsequent human or system processing. This sensing & control
expertise forms the concept for the core technologies that have
paved the way for many of OMRON's unique and advanced technologies.
Capacitive Touch Sensing ICs
New B6TS Sensing ICs Simplify Touch Control Applications
Fast development time, due to application and self-teach programs
Measures floating capacitance through most touch panel materials
Features high noise immunity and automatic drift compensation
OMRON announces production availability of a new Touch Sensing IC family.
The B6TS is the key component for designing highly flexible, responsive, and reliable capacitive touch sensing controls.
Designed to integrate easily and quickly with any capacitive touch interface, the new Omron B6TS allows for a much shorter design cycle than that of other sensor ICs and it's development software permits the flexible sensing chip to be "application ready". Other quick development features include self-teaching, auto threshold, and intelligent filtering, in order to simplify system design and improve performance. The B6TS compensates continuously for long term drift, to help ensure a long service life, and is designed to be more resistant to EMC interference.
For full product information and complete set of technical details - please click on the image and visit our corporate website:
Ultra-Wideband Antenna
Omron releases World's first mass-producible polymeric Ultra-Wideband Antenna.
Optimizing data transmission between PCs & other digital home appliances
Combines compact size with high performance utilizing OMRON's proprietary
dielectric polymer molding technology
In
contrast to the two-dimensional structure of integrated
circuits, MEMS technology produces three-dimensional
semiconductor structures with sub-micrometer precision.
These smart structures yield ultra-compact, ultra-fast
devices that help OMRON develop optimal new forms
of sensing & control for the new age.
Ultra-compact Sensing MEMS
As
with trends in electronic equipment everywhere,
demands for miniaturization have been placed on
sensors for detecting gas and fluid pressure,
which are incorporated into air conditioners and
electronic sphygmomanometers. Omron has been working
on electrostatic pressure and acceleration sensors
since long before this demand arose.
These
sensors detect the minute change in electrostatic
capacity between a moving electrode and a fixed
electrode as it changes under pressure. Conventional
sensors could not be physically miniaturized without
sacrificing sensitivity. Omron solved the problem
by employing a specially developed donut diaphragm
structure to attain the high output linearity
necessary for accurate detection. At one-tenth
(2.5 mm2) the size of conventional products, it
offers the world's highest sensitivity in an ultra
small package.
High-Precision Processing - Electroforming
Electroforming
is widely used where the mechanical process is
not practical due to high resolution and precision
requirement. It copies superfine and complex pattern
accurately.
What
is electroforming?
When thick plating is done to the surface of the
mother die and the electrodeposited layer flaked
off, the shape which is quite opposite to the
mother die is obtained.
Usage
The
size accuracy is extremely high, and it
is steady. The dimensional error of the
reproduced goods is within ±1µm over 100mm,
moreover, the distortion of the surface
is 50µm or less.
The defect caused by foreign body is extremely
few because of the clean room production.
The side can be transcribed in high accuracy.
Moreover, if the matrix is a mirror finish,
it is possible to use as a mirror finish
without the finish processing. 4) Because
the material is a nickel, hardness is
high and durability is sufficient. It
is possible to use as a mold for molding
meta
Usage
Metal mold for liquid crystal display
optical guided-wave devices and metal
mold for non-spherical micro lens