INESC TEC
INESC TEC
INESC TEC
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inSITE

INESC TEC

About the Project

inSITE. Insitu ore grading system using LIBS in harsh environments

In­site ore grading system using LIBS in harsh environments, funded by EIT Raw Material. LIBS is a promising tool for real-time analysis of low atomic weight critical raw materials such as Li. Most solutions on the market are plagued by inconsistent results and poor quantification performance. inSITE introduces a new solution based on a modular hardware architecture coupled with advanced algorithms and a knowledge database of mineral spectra, that will enable a new generation of smart LIBS technology, adaptable to real time ore grading in challenging scenarios.
Acronym

inSITE

Responsible

Pedro Jorge

Status

Closed

Starting Date

January 1, 2020

Ending Date

January 31, 2022

Effective End Date

January 31, 2022

Global Budget

€1,937,146.00

Funding

€463,185.00

Website

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Datasheet

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Dissemination

INESC TEC has a unique and differentiating management model, improved over its 35 years of history. Reflecting its unique position between academia and industry, the management at INESC TEC carefully balances, in a hybrid model, the academic culture of scientific freedom and dialogue with a culture of efficiency and responsibility in management.

Associated Centres

Applied Photonics

From fundamental science to real-world innovation: at our Centre for Applied Photonics (CAP), we explore optical phenomena as a unique toolbox for innovation in micro- and nanofabrication, optical, physical, and biochemical sensors, and platforms for analogue simulation and quantum computing. Our researchers focus on developing systems capable of operating in contexts where precise and reliable sensing is essential (industry, environment or biomedicine), as well as nonlinear optical devices for building quantum analogue simulations and computing platforms. Our advances in photonic sensing enable their use in extreme environments, e.g., outer space or deep sea. Based on a non-siloed organisation, the solutions we develop through the study of light and photons require multidisciplinarity and close, cooperative work across our various research domains. With our expertise in photonics and electronic systems integration, we explore the potential for technology transfer to the emerging national and international photonics industry.

Applied Photonics

Robotics and Autonomous Systems

The Centre for Robotics and Autonomous Systems (CRAS) focuses on developing innovative robotic solutions for operation in complex environments. Each day, our researchers strive to map the unknown, creating solutions to explore the oceans’ depths, monitor the environment, or inspect infrastructures. Our goal? To become a global reference in robotics and autonomous systems, combining expertise in multisensory perception and 3D modelling, navigation and control, robotic manipulation and intervention - pushing the boundaries of autonomous robotics and integrating aerial, ground, and underwater robots into our solutions. Focusing on Technology Readiness Levels (TRL) between 5 and 8, CRAS develops prototypes and operational solutions for strategic sectors. Our laboratory infrastructure includes test tanks, prototyping workshops, and a wide range of equipment ready to operate in real-world environments. Our researchers also resort to Mar Profundo, a support vessel for testing and validating innovative maritime technologies - a key asset in bridging theoretical design and field validation. CRAS stands out for a practical approach: we combine advanced research with a strong focus on real-world applications, reducing human risk in hazardous missions, optimising operations and processes, and expanding the frontiers of autonomous robotics.

Robotics and Autonomous Systems