Skip to main content

GSSI partners with MIT Lincoln Laboratory to develop LGPR for autonomous vehicles

US-based Geophysical Survey Systems (GSSI), manufacturer of ground penetrating radar (GPR) equipment, has entered into a licensing agreement with Massachusetts Institute of technology (MIT) Lincoln Laboratory to build and sell commercial prototypes of their localised ground penetrating radar (LGPR) system, which helps autonomous vehicles navigate by using subsurface geology. The partnership will make prototype systems available to the self-driving vehicle industry.
September 11, 2017 Read time: 2 mins
US-based Geophysical Survey Systems (GSSI), manufacturer of ground penetrating radar (GPR) equipment, has entered into a licensing agreement with 2024 Massachusetts Institute of technology (MIT) Lincoln Laboratory to build and sell commercial prototypes of their localised ground penetrating radar (LGPR) system, which helps autonomous vehicles navigate by using subsurface geology. The partnership will make prototype systems available to the self-driving vehicle industry.

 
The agreement builds on GSSI’s new engineering initiative, which focuses on using GPR to solve difficult problems that cannot be solved with any other technologies. Led by newly appointed Vice President of Research and Development, David Cist, an expert engineering team is focusing on commercialising the new technology.
 
Engineers at MIT Lincoln Laboratory, who developed LGPR, have demonstrated that features in soil layers, rocks, and road bedding can be used to localize vehicles to centimetre-level accuracy. The LGPR technology has been tested for lane keeping even when snow, fog, or dust obscures above-ground features.
 
The LGPR sensor uses high-frequency radar reflections of underground features to generate a baseline map of a road's subsurface. Whenever an LGPR vehicle drives along a road, the data can be used as a reference map. On subsequent passes the LGPR equipped vehicle compares its current map against the reference map to create an estimate of the vehicle's location. This localisation has been demonstrated to be accurate to within a few centimetres, in real-time and at highway speeds, even at night in snow-storms.

For more information on companies in this article

Related Content

  • Autonomous vehicles, smart cities: moving beyond the hype
    February 21, 2018
    There is a lot of excited chatter about autonomous vehicles – but 2getthere’s Robbert Lohmann suggests we might need to take a step back and look realistically at what is achievable. You might be surprised that the chief commercial officer of a company delivering autonomous vehicles would begin an article with the suggestion that we need to get past the hype. And yet I do; because we have to, and urgently so. The hype prevents the development of autonomous vehicles that address actual transit needs. And
  • U-M offers open-access automated cars to advance driverless research
    November 22, 2016
    The University of Michigan (U-M) is offering use of its new research vehicles as test beds for academic and industry researchers to test self-driving and connected vehicle technologies at its proving ground. These open connected and automated research vehicles, or open CAVs, are equipped with sensors including radar, lidar and cameras, among other features and will be able to link to a robot operating system. An open development platform for connected vehicle communications will be added later. The op
  • AVs and poor weather – a bad mix
    May 11, 2020
    The US DoT has produced a report on how adverse weather and road conditions will affect automated vehicles – it found inconsistency between different cars with these features which are already on highways and suggests limitations are not yet understood
  • Next-gen sensor needs for safer, smarter cities
    July 1, 2021
    Next-generation radar sensor solutions will help smart cities deliver on the promise of optimising infrastructure, mobility, sustainability and safety, says Econolite CTO Eric Raamot