EvoPhase founders developing proposed international standard to revolutionise industrial design
Applying the method to industrial process design could dramatically reduce energy consumption in manufacturing.
Applying the method to industrial process design could dramatically reduce energy consumption in manufacturing.
The Discrete Element Method (DEM) is a powerful method that computes the motion and effect of large numbers of small particles.
ºÚÁϳԹÏÍø researchers are working with a leading international organisation to set the global standards for a scientific method that can simulate the effects of landslides, earthquakes or volcanic eruptions – and could significantly reduce the energy used by manufacturing industries.
Dr Kit Windows-Yule and Leonard Nicusan from the School of Chemical Engineering have been engaged by (formerly known as the American Society for Testing and Materials), which is proposing the first ever standards for the Discrete Element Method (DEM) – a powerful method that computes the motion and effect of large numbers of small particles.
Just one particulate handling process – milling – accounts for 4% of all global electricity use. Our recent work using DEM resulted in an energy saving of 46% for one mill. If we could replicate this across all milling processes worldwide, we would save more than 200 million tonnes of CO2 per year.
DEM is widely accepted as effective in predicting the behaviour of particulate or granular materials that are in more than half of all manufactured products including food, pharmaceuticals, and raw materials for industry.
At first glance DEM seems esoteric, but application to industrial process design could dramatically reduce energy consumption in manufacturing, which is vital to reduce global greenhouse gas emissions.
Dr Windows-Yule recently founded , a University venture that aims to redefine industrial process design, by using advanced methods including DEM to improve efficiency, increase manufacturing outputs and reduce energy usage.
He said: “Just one particulate handling process – milling – accounts for 4% of all global electricity use. Our recent work using DEM resulted in an energy saving of 46% for one mill. If we could replicate this across all milling processes worldwide, we would save more than 200 million tonnes of CO2 per year.â€
DEM is used to simulate the movement of millions of particles. Although this work is computationally intensive, advances in computing power mean it can be readily applied in engineering or industrial design settings.
Currently the main limitation of DEM is choosing the right parameters (settings) for the simulation, to ensure the numerical models match reality.
ASTM International has proposed a standardisation of these calibrations, in a move that could revolutionise industrial design.
Dr Windows-Yule said: “Setting a new standard would help industry adopt a digital first approach to design. Relying less on physical experimentation would significantly reduce energy use and material waste.â€
He added: “The standard would also help broaden and democratise use of DEM, making it more accessible to small enterprises, and allowing non-specialists to take on high quality DEM-based R&D jobs which would otherwise be inaccessible to them.â€
For media information contact Ruth Ashton, ºÚÁϳԹÏÍø Enterprise, email: r.c.ashton@bham.ac.uk
About the ºÚÁϳԹÏÍø
The ºÚÁϳԹÏÍø is ranked amongst the world’s top 100 institutions, and its work brings people from across the world to Birmingham, including researchers and teachers and more than 6,500 international students from nearly 150 countries.
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About EvoPhase
delivers services to optimise existing and new process equipment that mixes, blends, stores, or stirs granular materials, using AI-led ‘evolutionary’ design algorthms, coupled with simulations of particulates in systems such as industrial mixers, to evolve an optimised design for the mixing blade, and the shape or size of the blending vessel.
EvoPhase has recently generated a design for the world's first geographically tailored urban wind turbine designed by AI. Simulations confirmed the Birmingham Blade is up to seven times more efficient than existing designs in Birmingham’s wind speeds and urban environment.
About ASTM International
Formerly known as American Society for Testing and Materials, ASTM International is a that develops and publishes voluntary consensus technical international standards for a wide range of materials, products, systems and services. Some 12,575 apply globally.