Updating Results

CSIRO Industry PhD Scholarship: Hydrogen as a Fuel for Agricultural Drying Equipment

CSIRO acknowledges the Traditional Owners of the land, sea and waters, of the area that we live and work on across Australia. We acknowledge their continuing connection to their culture and pay our respects to their Elders past and present.

Key details

Value
$45,000 per annum
Length of Support
Maximum term of 4 years for full scholarship

About this scholarship

The CSIRO Industry PhD Scholarship (iPhD) Program is an industry-focused, applied research scholarship and training program that brings together an industry partner, the university and CSIRO. 

You will undertake a co-designed research project that will develop your ability to translate research into commercial outcomes.  

You will get real-world experience and access to specialised expertise, equipment and training.

Our graduates develop transferable professional skills and are well positioned to work at the cutting edge of industry focussed research.  

Scholarship details 

The Program includes:

  • admission to the university PhD program  
  • a four-year scholarship package of approx. $45,000 per annum  
  • a four-year Project Expense and Development package of up to $13,000 per annum  
  • an in-business component with an industry partner of at least 3 months 
  • professional development training to enhance your applied research skills  
  • supervision by CSIRO, the industry partner, and the university  

 Project Description: 

Drying is a coupled mass and heat transfer unit operation process in chemical engineering discipline. There are over 400 different types of dryers reported in the literature and over 100 distinct types are commonly available for drying of various products. There is no single procedure for dryer development, rather designers employ mathematical models, experimental results and some art or know-how experience in developing new dryer and their operating strategies. Thermal drying is also an energy intensive process. Generally, these energy sources are obtained from fossil based natural gas or coal for heat. Green hydrogen can potentially be a clean fuel either as a blend or in pure form. The fuel value based on mass basis is higher for hydrogen compared with natural gas. However, because hydrogen has low volumetric energy density, a heat plant may need larger combustion chamber compared with natural gas. There are research and developments happening to design better equipment that can provide the need for full utilisation of hydrogen in the heat plant for industrial applications.   

This project will explore the state-of-the art review of the hydrogen utilisation as a heating fuel source, heat plants, specifically for potential application in grain drying for Agridryer products. A mathematical model will be developed and validated for a number of selected products drying for schedule development (e.g. drying conditions) and equipment design and optimisation using hydrogen as a fuel source. The techno-economic and environmental benefits of such application will be quantified using chemical and process engineering methodologies and life cycle assessment software, tools and CSIRO in-house databases. The results are expected to provide insights and potentially will aid engineering decision making to develop new equipment design and how to operate those equipment using appropriate conditions (e.g. temperature, humidity and air-flow combination for a product with keeping the properties in consideration). 

Eligibility

To be eligible to apply you must:

  •     be an Australian citizen or permanent resident, or a New Zealand citizen 
  •     meet host university PhD admission requirements 
  •     meet university English language requirements 
  •     not have previously completed a PhD 
  •     be able to commence the program in the year of the offer 
  •     enrol as a full-time PhD student 
Eligible Degrees
  • Bachelor (Honours)
  • Doctorate (PhD)
Eligible Study Modes
  • In person
Eligible Study Fields
S
Sciences

Selection criteria

The ideal student will have:

  •     an Engineering Degree, preferably Chemical Engineering with flow sheeting experience 
  •     Interest in Renewable Energy and/or Hydrogen 
  •     Interest in computational modelling  
  •     Some computing/programming skills 
  •     Some knowledge in fluid dynamics

Application process

  1. Experience relevant to the field of research, including any research experience
  2. Suitability for the project
  3. Academic excellence
  4. Motivation for undertaking an Industry PhD project