Dr Joanna Stasiak

BSC MSC PHD

College position:

Director of Studies for Chemical Engineering

Dr Joanna Stasiak
Dr Joanna Stasiak

Dr Joanna Stasiak studied Chemical Engineering in Lodz University of Technology in Poland where she graduated with a PhD in 2001 and then worked as an Assistant Lecturer. Her research interest at the time involved mass transfer in supercritical fluids. Before coming to the UK she has also worked in industry for five years as an Environmental Engineer being involved in commissioning new installations for power plants i.e. desulphurisation of exhaust gasses, water purification for boilers or landfill biogas combustion installations.

Since 2008 she has been working in the Department of Chemical Engineering and Biotechnology, University of Cambridge as postdoctoral researcher, promoted to Senior Research Associate in 2016.

Her research is focused on studying microstructure of block copolymer composites and their structure related properties. In 2019 she has been appointed to Senior Teaching Associate position to carry on teaching in CEB (part time) while continuing research. Currently she works on development of a polymeric heart valve prostheses for surgical and transcatheter application including, design of the device, manufacturing and in-vitro testing of the prototypes.

She has been a PI and Co-Investigatior in a number of research projects:

2019-2020 – SBRI NHS – “Polymeric Transcatheter Heart Valve Prosthesis for aortic implantation” £100K, Co-I

2015–2018 BHF Special Project Grant “Polymeric Prosthetic Heart Valve from anisotropic nanocomposites – device optimisation and in-vivo testing”, £790K, Co-I

2016 – Diamond Light Source study “SAXS study of skin-core structure formation during in-situ injection moulding of cylinder forming styrenic block copolymers”, Co-I

2015 – Soleil Synchrotron study “The influence of processing conditions on the bi-modal microstructure formation in block copolymer elastomers with cylindrical morphology”, PI

2012–2014 – Diamond Light Source study “Real time SAXS study of polymeric materials during fast cyclical deformation for application to prosthetic heart valves” Co-I

2011 – Diamond Light Source study “Time resolved SAXS study of extensional deformation of polymeric materials for application to prosthetic heart valves”, Co-I

Research Interests

Polymer processing, injection moulding of block copolymer composites

Development and testing of a polymeric heart valve prostheses

Microstructure characterisation using X-ray diffraction techniques

Microstructured materials and their structure related properties

Engineering materials’ microstructure for particular applications

Effect of microstructure and materials processing on durability

Supercritical fluids for drying and oxidation

Teaching And Professional Interests

Teaching

Examiner (Part I B) 2019

Director of Study for Chemical Engineering, Homerton College, University of Cambridge, since 1st Sep 2016

Lecturing: Fluids Mechanics

Setting, demonstrating and marking exercises: Fluids Mechanics, Process Dynamics and Control, Process Calculations, Separations

Supervisions: Structures, Radiation Heat Transfer, Fluids Mechanics

Co-supervising Part II B’s and MPhil’s research projects.

Professional Interests

Synchrotron facilities (Diamond, Soleil, ESRF), familiar with software for synchrotron data processing (Dawn, Foxtrot, SAXS), data reduction, visualisation and interpretation

Operating of a range of laboratory scientific equipment like: Bruker X-ray diffractometers, BOY Injection moulders, TE Electroforce Heart Valve Durability Tester, Mock Pulse Duplicator, Particle Image Velocimetry, Texture Analyser, Cambridge Multi-Pass Rheometer, Ares Rheometer, Bohlin Rheometer, Linkam, AFM microscope, Morphology Microscope, Laser Particle Sizer, MakerBot and FormLab 3D printers and many other smaller appliances.

Safety consciousness, familiar with lab regulations and chemical handling

Providing a research support for PhD students and undergraduate students

Developing research papers for publications

Preparing grant applications

Links to online publications, articles or other work
  1. V. Castelletto, A. Kaur, I. W. Hamley, R. H. Barnes, K.-A. Karatzas, D. HermidaMerino, S. Swioklo, C. J. Connon, J. Stasiak, M. Rezae, J. Ruokolainene, Hybrid membrane biomaterials from self-assembly in polysaccharide and peptide amphiphile mixtures: controllable structural and mechanical properties and antimicrobial activity, RSC Adv., 2017, 7, 8366;
  2. G Luraghi , W Wu , F De Gaetano , JF Rodriguez Matas , GD. Moggridge, M Serrani, J Stasiak , Maria Laura Costantino , Francesco Migliavacca, Evaluation of an aortic valve prosthesis: Fluid-structure interaction or structural simulation?, J Biomech 2017; 58: 45-51
  3. IW. Hamley, S Burholt, J Hutchinson, V Castelletto, E Rodrigo da Silva, W Alves, P Gutfreund, L Porcar, R Dattani, D Hermida-Merino, G Newby, M Reza, J Ruokolainen, Joanna Stasiak, Shear Alignment of Bola_Amphiphilic Arginine-Coated Peptide Nanotubes, Biomacromolecules, 2017, 18 (1), pp 141–149
  4. P De Sciscio, J Brubert, M De Sciscio, M Serrani, J Stasiak, G Moggridge, Quantifying the shift towards transcatheter aortic valve replacement in low-risk patients, Circ Cardiovasc Qual Outcomes, 2017,10(6), 
  5. Serrani M, Brubert J, Stasiak J , De Gaetano F , Zaffora A , Costantino ML , Moggridge GD, A computational tool for the microstructure optimization of a polymeric heart valve prosthesis, J Biomech Eng 2016, 138, 061001
  6. J Brubert, S Krajewski, HP Wendel, S Nair, J Stasiak, GD. Moggridge, Hemocompatibility of styrenic block copolymers for use in prosthetic heart valves, J Mater Sci: Mater Med, 2016, 27:32
  7. F De Gaetano, M Serrani, P Bagnoli, J Brubert, J Stasiak, GD. Moggridge, MLaura Costantino, Fluid Dynamic Performances of a New Polymeric Heart Valve Prototype (Poli-Valve) tested under Continuous and Pulsatile Flow Conditions, Int J Artif Organs 2015, 38(11), 600-606;
  8. F De Gaetano, P Bagnoli, A Zaffora, A Pandolfi, M Serrani, J Brubert, J Stasiak, GD. Moggridge, MLaura Costantino ”A newly developed tri-leaflet polymeric heart valve prosthesis”, J Mech Med Biol 2015, vol. 15 (2) 1540009.
  9. J. Stasiak, J. Brubert, M. Serrani, A. Talhat, F. De Gaetano, M. L. Costantino, G. D. Moggridge, „Structural changes of block copolymers with bi-modal orientation under fast cyclical stretching as observed by synchrotron SAXS”, Soft Matter, 2015, 11, 3271-3278
  10. J. Stasiak, J. Brubert, M. Serrani, S. Nair, F. de Gaetano, M. L. Costantino, G. D. Moggridge, A bio-inspired microstructure induced by slow injection moulding of cylindrical block copolymers, Soft Matter 2014, 10, 6077-86
  11. J. Stasiak, S. Nair, G. Moggridge, Mechanical strength of sutured block copolymers films for load bearing medical applications, Bio-Med. Mater. Eng. 2014, 24, 563–569
  12. F. Liu, A. Goodarzi, H. Wang, J. Stasiak, J. Sun, Y. Zhou, Frontiers in biomedical engineering and biotechnology, Bio-Med. Mater. Eng. 2014, 24(1), 3–6
  13. C. Ouellet-Plamondon, J. Stasiak, A. Al-Tabbaa „The effect of cationic, non-ionic and amphiphilic surfactants intercalation on the microstructure of montmorillonite”, Colloids Surf A, 2014, 444, 330– 33
  14. J. Stasiak, A. Zaffora, M. L. Costantino, G. D. Moggridge, A real time SAXS study of oriented block copolymers during fast cyclical deformation with potential application for prosthetic heart valves, Soft Matter, 2011, 7(24), 11475-11482
  15. J. Stasiak, A. Zaffora, M. L. Costantino, A. Pandolfi, G. D. Moggridge, Engineering orientation in block copolymers for application to prosthetic heart valves, Func. Mat. Lett., 2010, 3(4), 249-252
  16. J. Stasiak, A. M. Squires, V. Castelletto, I. W. Hamley, G. D. Moggridge, Dynamics of shear–induced orientation transitions in block copolymers, Soft Matter., 2010, 6, 1941-1947
  17. J. Stasiak, A. M. Squires, V. Castelletto, I. W. Hamley, G. D. Moggridge, Effect of stretching on the structure of cylinder- and sphere- forming styrene-isoprene-styrene block copolymers, Macromolecules, 2009, 42, 5256-5265
  18. V. Castelletto, A. M. Squires, I. W. Hamley, J. Stasiak, G. D. Moggridge, A SAXS study of flow alignment of thermotropic liquid crystal mixtures, Liq. Cryst., 2009, 36(4), 435-442
  19. J. Stasiak, G. Rogacki „ Dispersive flow of near-critical water in a cylindrical pipe”, Chem Process Eng-Inz, 2004, 25, 11625-1630
  20. J. Stasiak, G. Rogacki, P. Wawrzyniak, “Tracer dispersion in nearcritical water during laminar flow through a hydrothermal tubular reactor”, Chem Process Eng-Inz, 2001, 22(3)E, 1309-1314
  21. J. Stasiak, G. Rogacki, P. Wawrzyniak, “Numerical simulation of tracer dispersion in sub- and supercritical water during laminar tube flow.” Chem-Ing-Tech, 2001, 73(6), 719
  22. Wawrzyniak P., G. Rogacki, J. Pruba, Z. Bartczak, “Effective diffusion coefficient in low temperature process of silica aerogel production.” J Non-Cryst Solids, 2001,285, 50-56
  23. Pruba J., G. Rogacki, „ Flow – injection analysis of the tubular flow reactor with sub-and supercritical water”, Recents Progres en Genie des Procedes., 1999, 71(13), 173-180
  24. Wawrzyniak P., G. Rogacki, J. Pruba „Binary diffusion of ethanol-liquid carbon dioxide mixture in silica gel structure”, J Non-Cryst Solid, 1998, 225, 86-90

Family Name: Pruba

PATENTS:

2014 - EP3110463 A1, Heart valve

2018 - UK Patent Application 19027.6  Heart valve -pending

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