Dr Leandro Bolzoni
Senior Lecturer in Materials and Manufacturing Engineering
Qualifications: BMechEng Polytechnic of Turin, MMatEng Polytechnic of Turin, MMatSci Carlos III de Madrid, PhD Carlos III de Madrid
Dr. Leandro Bolzoni joined the School of Engineering of The University of Waikato as a senior lecturer in July 2015, and is leading the development and commercialisation of titanium based products obtained via thermomechanical powder consolidation (TPC). Dr. Leandro Bolzoni got his BS and MS in Mechanical Engineering at the Polytechnic of Turin in Italy, where he is originally from. In 2006 he moved to Spain to the Universidad Carlos III de Madrid where he received an MS in Materials Science and Engineering and was awarded his Doctorate in Materials Science and Engineering for the Ph.D. thesis titled “Development and Processing of Titanium Based Alloys Produced by Advanced Powder Metallurgy Techniques”. Before joining The University of Waikato, Dr. Leandro Bolzoni spent the previous three years at Brunel University London working on the development of reliable and efficient grain refiners for Al-Si cast alloys for sustainable engineered cast products.
As the quote of the great inventor Leonardo Da Vinci states “Nessuno effetto è in natura sanza ragione; intendi la ragione e non ti bisogna sperienza”, in nature there is always a reason for each effect. This fits well for the world of materials science and it is especially true in the case of physical metallurgy of light metals, my main research field, where relatively little variation in terms of composition and/or processing can lead to completely different behaviours of the starting material. In particular, I am interested in the development and/or improvement of the sustainability of light metals such as titanium, aluminium and magnesium via non-traditional fabrication methods. In a world where the main structural metal has mainly been steel since the industrial revolution, the understanding of the nature and behaviour of the light metals is becoming paramount because of some of their intrinsic advantages, like the lightweighting effect and its related aspects such as higher performances, reduction of greenhouse emission, environmental friendly nature and potential recyclability, especially if they are used to create high entropy alloys. Further developments in the understanding and application of light metals can come from both the modification of the material itself as well as through the design of novel production routes. A clear example is the implementation of "additive manufacturing", others near-net-shape techniques, which is revolutionising the industrial world because the components or products are, actually, built layer-by-layer from an engineered drawing rather than obtained by the removal of materials by means of sophisticated and, sometimes, difficult-to-perform machining operations with noticeable advantages among which more freedom in the design of complex products and saving material and fabrication costs.
Find out more info about the research performed by the Waikato Centre for Advanced Materials and Manufacturing in the WaiCAMM website: https://cms.its.waikato.ac.nz/eng/research/WaiCAMM
Currently interested in the physical metallurgy of light metals and novel materials. Including:
Development of low-cost titanium alloys, both from a manufacturing and a material point of view.
New metallic biomaterials functionalised with antibacterial activity.
Sustainable materials, recyclability and innovative materials (for a circular economy) https://www.waikato.ac.nz/research-enterprise/research-with-waikato/amiomio-aotearoa
High entropy alloys made via powder metallurgy.
Successfully completed research
Mr. Mohammad Alqattan (2020): Mechanical and antibacterial properties of powder metallurgy Ti-Cu-Mn alloys.
Dr. Qinyang Zhao (2020): Deformation behaviour and processing of powder metallurgy metastable beta titanium alloy.
Dr. Carlos Romero Villarreal (2020): Effect of thermomechanical processing on the mechanical behaviour of cost-effective powder metallurgy Ti-based materials.
Mr. Yousef Alshammari (2017): Production and characterization of titanium based alloys with potential antifouling and biofouling.
Dr. Stella Raynova (2017): Study on low-cost alternatives for synthesising powder metallurgy titanium and titanium alloys.
Engineering; Materials and Processing; Mechanical; Metals; Sustainability; X-Ray
Alshammari, Y., Raynova, S., Yang, F., & Bolzoni, L. (2020). Effect of particle size and manufacturing technique on the properties of the PM Ti-5Fe alloy. International Journal of Refractory Metals and Hard Materials, 90. doi:10.1016/j.ijrmhm.2020.105246
Bolzoni, L., Raynova, S., & Yang, F. (2020). Strengthening mechanisms of Ti via Al addition. Journal of Alloys and Compounds, 820. doi:10.1016/j.jallcom.2019.153447
Lei, L., Bolzoni, L., & Yang, F. (2020). High thermal conductivity and strong interface bonding of a hot-forged Cu/Ti-coated-diamond composite. Carbon. doi:10.1016/j.carbon.2020.07.001
Romero, C., Yang, F., Zhang, S., & Bolzoni, L. (2020). Effect of thermomechanical microstructural modification and resulting crystallographic texture on the crack initiation mechanism and fatigue behaviour of PM Ti–6Al–4V. Materials Science and Engineering: A, 139836. doi:10.1016/j.msea.2020.139836
Contact DetailsEmail: email@example.com
Phone: +64 7 837 9381