Accepting PhD Students

1991 …2021
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Personal profile


Professor Artur J. Jaworski, PhD; MSc(Eng); DIC; CEng; FRAeS; FHEA, is currently Chair in Mechanical Engineering at the School of Computing and Engineering, University of Huddersfield, UK. He has previously served as Chair in Energy Technology and Environment at the University of Leeds (2013-2017), Chair in Engineering and Head of Thermofluids Research Group at the University of Leicester (2011-2013) and Lecturer and Senior Lecturer at the University of Manchester (2000-2011). In 2015, he has held a Visiting Professor appointment at the Faculty of Engineering, University of Cagliari, Italy, and in 2017 a Visiting Professor appointment at the School of Computing and Engineering, University of Huddersfield, UK.

Professor Jaworski received his MSc(Eng) from the Faculty of Power and Aeronautical Engineering of the Warsaw University of Technology (1986-1991), and PhD and DIC from the Department of Aeronautics, Imperial College of Science, Technology and Medicine, London (1992-1996). He subsequently trained as postdoctoral research associate at the Department of Chemical Engineering, University of Manchester Institute of Science and Technology (1996-2000).

Professor Jaworski's research track record includes: theoretical and numerical analysis of heat and mass transfer processes in thermal-solar systems, experimental fluid dynamics and aerodynamics related to vortex dynamics and coherent structures generated by vortex breakdown flow field, aerodynamic flow control using synthetic jet actuators, sensor design, measurement and instrumentation for multiphase processes, non-invasive imaging techniques such as industrial process tomography and most recently Thermoacoustic Technologies which utilize thermal-fluid interactions between acoustic field and compressible fluid to engineer thermodynamic machines (engines and coolers) with no moving parts. He has held two prestigious fellowships in Thermoacoustic Technologies: EPSRC Advanced Research Fellowship (2004-2009) and Royal Society Industry Fellowship (2012-2015). He has co-authored in excess of 140 publications, of which around 60 are in refereed scientific journals.

Research Expertise and Interests


My educational and research track records have been in three general areas: Mechanical, Aerospace and Process/Chemical/Environmental Engineering, but in broader terms relate to thermal-fluid sciences (fluid mechanics, heat transfer and thermodynamics), energy systems engineering including renewable energy and waste heat recovery, as well as development of measurement techniques and instrumentation for complex thermal-fluid systems. Some of my current research interests are listed below:

Thermoacoustic Technologies - These are based on the thermoacoustic effect whereby appropriately phased pressure and velocity oscillations enable the compressible fluid to undergo a thermodynamic cycle (similar to a Stirling cycle) in the vicinity of the solid material. Here an acoustic wave interacts with a porous solid material either to produce acoustic power, induced by a temperature gradient imposed on the solid, or to obtain a temperature gradient along the solid, induced by an imposed acoustic wave. Potential applications of thermoacoustics include heat pumps for domestic applications or upgrading industrial waste heat; direct conversion of waste or geothermal heat or solar power into electricity; liquefaction and re-gasification of natural gas; combined heat and power systems; tri-generation systems (power, heating and cooling); solar driven cooling and air conditioning and many others. Click HERE for more detail.

Thermal-Fluid Processes in Oscillatory Flows - My interests in unsteady flow and heat transfer phenomena in oscillatory flows stem from the area of Thermoacoustic Technologies. However, similar problems exist in Stirling engines and pulsed-tube coolers in cryogenics. Also, enhancement of heat transfer by using oscillatory, and in some cases pulsating, flows is important in many areas of mechanical and chemical engineering for intensification of heat transfer processes and possible miniaturization of heat exchangers of the future. In this respect, I have developed dedicated experimental facilities equipped with laser-based thermal-fluid diagnostics techniques, including Particle Image Velocimetry (PIV) and Planar Laser Induced Fluorescence (PLIF), to measure the time-dependent fluid flow and heat transfer behaviour. In addition to the experimental work, numerical modelling has been carried out using a CFD package Fluent. Some examples of such work are given in PhD theses of my former research students (see examples HERE or HERE) and selected papers (see examples HERE or HERE).

Applied Aerodynamics and Fluid Mechanics - This covers a range of steady and unsteady fluid mechanics problems where on the fundamental level one needs to consider a range of phenomena such as turbulent transition, flow separation and reattachment, generation of vortex structures and their complex interactions as well as their dissipation and breakdown. These types of processes are important in many areas of engineering, including in particular mechanical, aerospace, civil or chemical. Here, the typical examples include the design of wind turbines, investigations of various wing planforms of flying vehicles, automotive-related aerodynamics for energy efficient land-based transportation, urban design, wind loading problems on civil structures, internal flows within buildings, Earth boundary layer problems and weather phenomena, use of vortex structures in enhanced mixing processes and many others. All these are being investigated both experimentally and numerically. An example of the aerospace-related flow control of large-scale vortex structures using injection of small amounts of momentum by using "synthetic jets" can be found HERE.

Multiphase Flows and Processes - This research concerns both experimental and modelling work to enable understanding and prediction of a wide range of industrially relevant flow situations such as gas-solids, solids-liquid and gas-liquid systems, commonly encountered in pneumatic and hydraulic conveying, centrifugal separation, fluidized beds, flows from hoppers and silos, waste water treatment plants or mining plants, as well as liquid-liquid systems such as those present in oil-water separation processes. The fundamental issues addressed here include the dynamics of particle assemblies and their interactions with carrying fluids, particle microstructures and interface phenomena or rheological properties of complex suspensions and poly-dispersed mixtures. This work aims to answer basic technological questions concerning the effects of process parameters on the nature of the multi-phase and multi-component systems and is regarded as vital for designing new processes in the future. An example of studying gas-solids flow structures can be found HERE.

Sensors and Instrumentation for Multiphase Flows/Heterogeneus Mixtures - The development of reliable measurement and sensor techniques in the area of multi-phase and multi-component systems is one of the important research areas. On the fundamental level, it is required as an important means for validating the developed modelling tools. On the practical industrial level it is required for monitoring and control of a range of processes. My research has included for example the use of Electrical Capacitance Tomography (ECT) techniques for measurement of solids mass flow rates in pneumatic conveying (see example HERE). Similarly, I have been working on development of multi-modality thick-film sensors for composition detection of heterogeneous mixtures, which relied on simultaneous use of electrical impedance techniques and ultrasonic time-of-flight (see examples HERE or HERE). Some of the industrially relevant work has been carried out on oil-water interface detection in horizontal oil-water separators commonly found in off-shore and on-shore oil and gas extraction plants (see example HERE).

Thermal and Flow Management in Microfluidic Devices - In general terms, microfluidic devices handle small volumes of fluids (micro-liters, nano-liters). Flows are usually implemented inside channels with characteristic dimensions from tens to hundreds of microns. The applications of microfluidic devices include engineering of "labs-on-chips" for various bio-chemical analyses, manufacture of high-value speciality chemicals or in biotechnology for handling individual cells/particles. Controlling the flow and thermal conditions within such small devices is challenging. My particular interests lie in the application of micro-scale thermoacoustic coolers/heat pumps to precisely control the required temperature differentials and heat fluxes with high spatial accuracy as well as utilization of acoustic streaming phenomena for handling particulate or biological materials within the devices. Mixing processes in microfluidics are also a challenge due to typically low Reynolds numbers. Such "laminar mixing" can be enhanced by application of miniature piezo-ceramic actuators and acoustic excitation.

Research Degree Supervision

Click Here to see all postgraduate research opportunities with Professor Artur Jaworski


  • Energy
  • Heat Transfer
  • Thermodynamics
  • Thermofluids
  • Thermoacoustics
  • Fluid Mechanics
  • Aerodynamics
  • Multiphase Flow
  • Industrial Process Tomography
  • Sensors & Instrumentation
  • Heterogeneous Mixtures
  • Microfluidics
  • Nanofluids

Fingerprint Fingerprint is based on mining the text of the person's scientific documents to create an index of weighted terms, which defines the key subjects of each individual researcher.

Thermoacoustics Engineering & Materials Science
Thermoacoustic engines Engineering & Materials Science
Heat exchangers Engineering & Materials Science
parallel plates Physics & Astronomy
Regenerators Engineering & Materials Science
Acoustics Engineering & Materials Science
Capacitance Engineering & Materials Science
standing waves Physics & Astronomy

Network Recent external collaboration on country level. Dive into details by clicking on the dots.

Projects 2018 2021

Research Output 1991 2018

3 Citations
Open Access
Fluidized beds
4 Citations
Open Access
nonintrusive measurement
Electrical Capacitance Tomography
Fluidized Bed
Fluidized beds
Comparative Study
5 Citations

Design and construction of a two-stage thermoacoustic electricity generator with push-pull linear alternator

Hamood, A., Jaworski, A. J., Mao, X. & Simpson, K., 1 Feb 2018, In : Energy. 144, p. 61-72 12 p.

Research output: Contribution to journalArticle

Open Access
Acoustic generators
Gas generators
Heat engines

Experimental and Numerical Investigations of Thermal Characteristics of Heat Exchangers in Oscillatory Flow

Ilori, O. M., Jaworski, A. J. & Mao, X., 5 Nov 2018, In : Applied Thermal Engineering. 144, p. 910–925 16 p.

Research output: Contribution to journalArticle

Heat exchangers
Thermoacoustic engines
Tubes (components)
Pressure drop
Stirling engines

Thermoacoustic cooler to meet medical storage needs of rural communities in developing countries

Saechan, P. & Jaworski, A. J., 10 May 2018, In : Thermal Science and Engineering Progress. 7, p. 164-175 12 p.

Research output: Contribution to journalArticle

Developing countries
Thermoacoustic engines
Cold storage
Gas burners