Project Details
Abstract
Based on the previously experimental study of the 2.4GHz and 3-30GHz
Radio-frequency transceiver chip with standard CMOS processes, the objective of this project
is to integrate the experience on the design and fabrication of wireless biomedical sensor chip,
such as temperature, optical intensity and position sensors, as well as orthogonal
polarization-based optical sensors. The polarization-based sensor chip provides the
characteristic information of investigated object-components. Indeed, this chip also shows to
the contribution on the ultra-low transmitter power for biomedical sensing transmission and
the promotion on the application area such as the investigation of polarized-specimen
properties with the following three years.
In the first year, continuous improvement on the performance of a new dual-band
polarization-based sensor will be investigated with the integration of readout amplifier and
ultrawideband transceiver. Meanwhile, many efforts on the low-power interference of
impulse-response ultrawideband transceiver have devoted to measurement environment and
chip implementation.. After developed the basic theory and simulation model, we design the
layout and post-simulation of the polarization-based array sensors. In the second year, some
peripheral circuits, such as decoders, scanners, buffers, and sensor amplifiers, will be
implemented and integrated to the dual-band polarization-based sensing array. Orthogonally
polarimetric measurement exhibits the offset of aligned polarizing light. Image sensor-array
and dual-band polarization analyzing CMOS sensor that will be integrated on the
micro-object system is proposed in the third year. Finally, the dual-band polarization-based
image-sensing chip will be integrated into the developed wireless biomedical transceiver chip
to promote its performance and quality factor.Based on the previously experimental study of the 2.4GHz and 3-30GHz
Radio-frequency transceiver chip with standard CMOS processes, the objective of this project
is to integrate the experience on the design and fabrication of wireless biomedical sensor chip,
such as temperature, optical intensity and position sensors, as well as orthogonal
polarization-based optical sensors. The polarization-based sensor chip provides the
characteristic information of investigated object-components. Indeed, this chip also shows to
the contribution on the ultra-low transmitter power for biomedical sensing transmission and
the promotion on the application area such as the investigation of polarized-specimen
properties with the following three years.
In the first year, continuous improvement on the performance of a new dual-band
polarization-based sensor will be investigated with the integration of readout amplifier and
ultrawideband transceiver. Meanwhile, many efforts on the low-power interference of
impulse-response ultrawideband transceiver have devoted to measurement environment and
chip implementation.. After developed the basic theory and simulation model, we design the
layout and post-simulation of the polarization-based array sensors. In the second year, some
peripheral circuits, such as decoders, scanners, buffers, and sensor amplifiers, will be
implemented and integrated to the dual-band polarization-based sensing array. Orthogonally
polarimetric measurement exhibits the offset of aligned polarizing light. Image sensor-array
and dual-band polarization analyzing CMOS sensor that will be integrated on the
micro-object system is proposed in the third year. Finally, the dual-band polarization-based
image-sensing chip will be integrated into the developed wireless biomedical transceiver chip
to promote its performance and quality factor.
Project IDs
Project ID:PB10108-2803
External Project ID:NSC101-2221-E182-078
External Project ID:NSC101-2221-E182-078
Status | Finished |
---|---|
Effective start/end date | 01/08/12 → 31/07/13 |
Keywords
- Polarization-based
- Sensor Device
- Polarimetric measurement
- Metal-Oxide Semiconductor
- Biomedical Sensor
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