Below is a list of publications (and my thesis) that I have (co)authored organised by year. If you would like a preprint of any of the articles or any further information please send me an email. My email address is available here.
Preprints – 2019 – 2018 – 2017 – 2016 – 2015 – 2014 – 2013 – 2012 – 2011
Preprints/Submitted/In Preparation/In Press
Spin-current-mediated rapid magnon localisation and coalescence after ultrafast optical pumping of ferrimagnetic alloys (Open Access). Nature Communications, 10, 1756 (2019). (read more).
[26] – Optical Receiver with Helicity Dependent Switching of Magnetization. IEEE Transactions on Magnetics, 55, Issue 1 (2019). (read more), arXiv version available here. [25] – Ultrafast double magnetization switching in GdFeCo with two picosecond-delayed fs pump pulses, Applied Physics Letters, 113, 062402 (2018). (read more). [24] – Roles of heating and helicity in ultrafast all-optical magnetization switching in TbFeCo. Applied Physics Letters, 113, 032405 (2018). (read more), arXiv version available here (read more). [23] – Probability distribution of substituted Titanium in RT12 (R = Nd, Sm, T = Fe, Co) structures. IEEE Transactions on Magnetics, 54, Issue 11 (2018). (read more), arXiv version available here. [22] – Competition of lattice and spin excitations in the temperature dependence of spinwave stiffness. Physical Review B, 97, 214417 (2018). (read more). [21] – Site-resolved contributions to the magnetic anisotropy energy and complex spin structure of Fe/MgO sandwiches. Physical Review Applied, 9, 054048 (2018). (read more). [20] – A multiscale model of the effect of Ir thickness on the static and dynamic properties of Fe/Ir/Fe films. (Open Access) Scientific Reports, 8, 3879 (2018). (read more). The pdf is free to download here. Read the blog post here. [19] – Conditions for thermally-induced all-optical switching in ferrimagnetic alloys: modeling of TbCo. Physical Review B, 96, 014409 (2017). (read more) [18] – Substrate Induced Strain Field in FeRh Epilayers Grown on Single Crystal MgO (001) Substrates. (Open Access) Scientific Reports, 7, 44397 (2017). (read more). [17] – Modelling and Experiments of the Effects of Interfaces on the Phase Transition in FeRh. Physical Review B, 95, 064415 (2017). (read more). [16]- Effects of Interactions on the Relaxation Processes in Magnetic Nanostructures. Physical Review B, 94, 134431 (2016). (read more). Read the blog post here. [15] – Thermally induced magnetization switching in Gd/Fe multilayers. Physical Review B, 93, 054302 (2016). (read more). [14] – Optimal electron, phonon and magnetic characteristics for ultra-low energy thermally induced magnetization switching. Applied Physics Letters, 107, 192402 (2015). (read more). [13] – Ultrafast and Distinct Spin Dynamics in Magnetic Alloys. (Open Access) SPIN, 5, No. 3 (2015). (read more) selected as the front cover highlight of the issue. Blog post here. [12] – Strain Induced Vortex Core Dynamics in Planar Magnetostrictive Nanostructures. (Open Access) Physical Review Letters, 115, 067202 (2015). (read more). Blog post and movie here.[11] – The Landau-Lifshitz Equation in Atomistic Models. Low Temperature Physics/Fizika Nizkikh Temperatur, 41, N 9, pages 908-916 (Sept 2015). (read more Russian/read more English). arXiv version available here.
[10] – Laser Induced Magnetization Reversal for Detection in Optical Interconnects. IEEE Electron Device Letters, 35, 1317-1319 (2014). (read more). Blog post here.
[9] – Temperature Dependent Ferromagnetic Resonance via the Landau-Lifshitz-Bloch Equation: Application to FePt. Physical Review B, 90, 094402 (2014). (read more). Blog post here.
[8] – Ultrafast Thermally Induced Magnetic Switching in Synthetic Ferrimagnets, Applied Physics Letters, 104, 082410 (2014). (read more)
[7] – VAMPIRE: Atomistic Spin Model Simulations of Magnetic Nanomaterials, Journal of Physics: Condensed Matter, 26, 103202 (2014). (read more) Selected as a J. Phys: Cond Mat highlight of 2014. [6] – Two magnon bound state causes ultrafast thermally induced magnetisation switching. (Open Access) Nature Scientific Reports, 3, 3262 (2013). (read more). Blog post here. [5] – Ultrafast Dynamical Path for the Switching of a Ferrimagnet After Femtosecond Heating. Physical Review B, 87, 224417 (2013). (read more). Blog post here. [PHD THESIS] – Computer Simulations of Ultrafast Magnetization Reversal. Ph.D Thesis (2013). Download here or access it at the White Rose Ethesis Online Server via this link. (read more) [4] – Classical Spin Model of the Relaxation Dynamics of Rare-Earth Doped Permalloy. Physical Review B, 86, 174418 (2012). (read more). Blog post here. [3] – Ultrafast Heating as a Sufficient Stimulus for Magnetization Reversal. Nature Communications, 3, 666 (2012). (read more). Technology highlight for the Daily Mail Online. Blog post here. [2] – Crystallographically Amorphous Ferrimagnetic Alloys: Comparing a Localized Atomistic Spin Model with Experiments. Physical Review B, 84, 024407 (2011). (read more) [1] – Transient Ferromagnetic-like State Mediating Ultrafast Reversal of Antiferromagnetically Coupled Spins. Nature, 472, 205-208 (2011). (read more) Selected for the virtual journal of ultrafast science and covered in the Dutch national press.