A Scalable Timedomain Biosensor Array Using A Capacitorless Cmatc And
Logarithmic Cyclic Timeattenuationbased Tdc With Discharge Acceleration
For Highspatialresolution Bioimaging
- doi: 10.1109/ICECS.2017.8292072
-
title: A scalable time-domain biosensor array using a
capacitor-less CMATC and logarithmic cyclic time-attenuation-based TDC
with discharge acceleration for high-spatial-resolution bio-imaging
- publisher: IEEE
- isbn: 978-1-5386-1912-4
- issn:
- rank: 1269
- access_type: LOCKED
- content_type: Conferences
-
abstract: This paper presents a time-domain biosensor
array that uses a capacitor-less current-mode analog-to-time converter
(CMATC) and a logarithmic cyclic time-attenuation-based time-to-digital
converter (TDC) with discharge acceleration. By combining the
exponential function of the CMATC and the logarithmic function of the
proposed TDC, linear input-output characteristics are provided. The TDC
cyclically attenuates the input time difference to enable logarithmic
time-to-digital conversion. In emerging high-speed operations, the
discharge acceleration signal is employed for time attenuation. The
timedomain property enables bio-imaging at a high spatial resolution and
large scale while maintaining scalability. The measurement results from
a 0.25-pm test chip exhibited linear input-output characteristics.
Finally, we performed potentiometric measurements using a CMOS FET-based
redox potential sensor.
- article_number: 8292072
-
pdf_url:
https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=8292072
-
html_url:
https://ieeexplore.ieee.org/document/8292072/
-
abstract_url:
https://ieeexplore.ieee.org/document/8292072/
-
publication_title: 2017 24th IEEE International
Conference on Electronics, Circuits and Systems (ICECS)
- conference_location: Batumi, Georgia
- conference_dates: 5-8 Dec. 2017
- publication_number: 8283844
- is_number: 8291994
- publication_year: 2017
- publication_date: 5-8 Dec. 2017
- start_page: 406
- end_page: 409
- citing_paper_count: 0
- citing_patent_count: 0
- download_count: 174
- insert_date: 20180215
-
index_terms:
-
ieee_terms:
- Acceleration
- Integrated circuits
- Time-domain analysis
- Attenuators
- Discharges (electric)
- Asia
-
author_terms:
- Bio-imaging
- time-domain
- TDC
- cyclic
- high-resolution
-
dynamic_index_terms:
- Biosensor Array
- High-resolution
- Logarithm
- Log Transformed
- Logarithmic Transformation
- Linear Features
- Linear Characteristics
- Acceleration Signal
- Test Chip
- Time-to-digital Converter
- Potentiometric Measurements
- Feedback Loop
- Low Resolution
- Dynamic Range
- Input Signal
- Pulse Width
- Pulsewidth Modulation
- Final Output
- Constant Current
- Reductant
- Cycling Performance
- Input Voltage
- Current Pulse
- Node Voltage
- Digital Output
- Complementary Metal Oxide Semiconductor Technology
- Input Pulse
- Supply Voltage
- Output Pulse
- Nernst Equation
- External Electrodes
-
isbn_formats:
-
format: Print on Demand(PoD) ISBN,
value: 978-1-5386-1912-4,
isbnType: New-2005
-
format: Electronic ISBN,
value: 978-1-5386-1911-7,
isbnType: New-2005
-
authors:
-
Author Name: Kei Ikeda
Affiliation: Nagoya University, Nagoya, Japan
Author URL:
https://ieeexplore.ieee.org/author/37086003820
ID: 37086003820
Order: 1
Author Affiliations:
- Nagoya University, Nagoya, Japan
-
Author Name: Atsuki Kobayashi
Affiliation: Nagoya University, Nagoya, Japan
Author URL:
https://ieeexplore.ieee.org/author/37085691164
ID: 37085691164
Order: 2
Author Affiliations:
- Nagoya University, Nagoya, Japan
-
Author Name: Kiichi Niitsu
Affiliation: Nagoya University, Nagoya, Japan
Author URL:
https://ieeexplore.ieee.org/author/37393074800
ID: 37393074800
Order: 3
Author Affiliations:
- Nagoya University, Nagoya, Japan
Image Sensor
- sensor_type: CMOS
- resolution: 1920x1080
- dynamic_range: 60 dB
- pixel_size: 1.2 µm
- dark_current: 5 e-/s
Optical Data
- focal_length: 50 mm
- aperture: f/2.8
- field_of_view: 45 °
- distortion: 3 %
Performance Metrics
- frame_rate: 60 fps
- signal_to_noise_ratio: 40 dB
- sensitivity: ISO 800
- shutter_speed: 1/60s
- power_consumption: 250 mW
- noise: 10 e-
Applications & Benefits
-
cell_imaging: High resolution and sensitivity for
cellular imaging applications.
-
benefits: Compact size, low power consumption, and high
integration capabilities.
Supporting Organizations
Manuscript Details
- publication_date: 5-8 Dec. 2017
Relevancy Score
- score: 9
-
missing_fields:
- optical_data
- power_consumption
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