Research & Development World

  • R&D World Home
  • Topics
    • Aerospace
    • Automotive
    • Biotech
    • Careers
    • Chemistry
    • Environment
    • Energy
    • Life Science
    • Material Science
    • R&D Management
    • Physics
  • Technology
    • 3D Printing
    • A.I./Robotics
    • Software
    • Battery Technology
    • Controlled Environments
      • Cleanrooms
      • Graphene
      • Lasers
      • Regulations/Standards
      • Sensors
    • Imaging
    • Nanotechnology
    • Scientific Computing
      • Big Data
      • HPC/Supercomputing
      • Informatics
      • Security
    • Semiconductors
  • R&D Market Pulse
  • R&D 100
    • 2026 R&D 100 Award Winners
    • 2026 Professional Award Winners
    • 2026 Special Recognition Winners
    • R&D 100 Awards Event
    • R&D 100 Submissions
    • Winner Archive
  • Resources
    • Research Reports
    • Digital Issues
    • Educational Assets
    • Subscribe
    • Video
    • Webinars
    • PharmSci360
    • Content submission guidelines for R&D World
  • Global Funding Forecast
  • Top Labs
  • Advertise
  • SUBSCRIBE

New Measurement Method Could Lead to Cheaper, More Accurate Sensors

By University of Waterloo | June 30, 2017

A new method for measuring extremely tiny objects could lead to cheaper, more accurate sensors for use in fields including medical research and gas detection.

Research at the University of Waterloo found that nanoscale devices using electromagnetism would be sensitive enough to determine the mass of viruses a hundred billion times lighter than a strand of human hair.

“Medical researchers would finally have a more accurate tool for detecting viruses and bacteria, and that could lead to better clinical diagnosis,” said Hassan Askari, a researcher and PhD candidate at Waterloo.

The research also showed that the new method of measurement – a sensor consisting of a magnetic particle fixed to a tiny resonator plate and a tiny coil – has the potential to generate electricity, which would greatly reduce interference and improve accuracy.

Electrical voltage would be created when the plate was vibrated to rapidly vary the distance between the magnetic particle and the stationary coil. By measuring the difference in voltage after an object such as a bacteria or gas molecule was added to the plate, the sensor would be able to determine that object’s mass.

In addition, the voltage could be used to power the sensor itself, enabling wireless transmission of results from clean labs to computers outside of them, greatly reducing interference that impacts accuracy.

“The concept is very beautiful,” said Askari, who co-authored the research with Ehsan Asadi, also a PhD student at Waterloo. “If we can optimize the design, the hope is we can develop a self-powered mass sensor.”

Details of the research were recently published in the journal Measurement.

Related Articles Read More >

MBARI's Monterey Accelerated Research System (MARS) connects seafloor instruments to shore through a roughly 51-kilometer power and fiber-optic cable (red line) ending at a node about 891 meters down. The Geo-Sense system described in the new paper takes the opposite approach: a portable, battery-powered cable that records locally with no link to shore. Researchers used MARS's own fiber data to cross-check Geo-Sense's earthquake detections. Credit: MBARI
How lightweight AI startup Lightscline helped turn one to two years of seafloor data analysis into a two-month sprint
UC Riverside’s $5 fake drug detector uses toy robot sensors to catch counterfeit medications
R&D 100 winner flags even unknown fentanyl analogs
New nanopore sensor paves the way for fast, accurate, low-cost DNA sequencing
rd newsletter
EXPAND YOUR KNOWLEDGE AND STAY CONNECTED
Get the latest info on technologies, trends, and strategies in Research & Development.

R&D World Digital Issues

Fall 2025 issue

Browse the most current issue of R&D World and back issues in an easy to use high quality format. Clip, share and download with the leading R&D magazine today.

R&D 100 Awards
Research & Development World
  • Subscribe to R&D World Magazine
  • Sign up for R&D World’s newsletter
  • Contact Us
  • About Us
  • Drug Discovery & Development
  • Pharmaceutical Processing
  • Global Funding Forecast

Copyright © 2026 Arrowfly LLC. All Rights Reserved. The material on this site may not be reproduced, distributed, transmitted, cached or otherwise used, except with the prior written permission of Arrowfly
Privacy Policy | Advertising | About Us

Search R&D World

  • R&D World Home
  • Topics
    • Aerospace
    • Automotive
    • Biotech
    • Careers
    • Chemistry
    • Environment
    • Energy
    • Life Science
    • Material Science
    • R&D Management
    • Physics
  • Technology
    • 3D Printing
    • A.I./Robotics
    • Software
    • Battery Technology
    • Controlled Environments
      • Cleanrooms
      • Graphene
      • Lasers
      • Regulations/Standards
      • Sensors
    • Imaging
    • Nanotechnology
    • Scientific Computing
      • Big Data
      • HPC/Supercomputing
      • Informatics
      • Security
    • Semiconductors
  • R&D Market Pulse
  • R&D 100
    • 2026 R&D 100 Award Winners
    • 2026 Professional Award Winners
    • 2026 Special Recognition Winners
    • R&D 100 Awards Event
    • R&D 100 Submissions
    • Winner Archive
  • Resources
    • Research Reports
    • Digital Issues
    • Educational Assets
    • Subscribe
    • Video
    • Webinars
    • PharmSci360
    • Content submission guidelines for R&D World
  • Global Funding Forecast
  • Top Labs
  • Advertise
  • SUBSCRIBE