activity
20172020
most citedThe Compact Linear ee Collider (CLIC): Physics Potential

48 citations · 117 across the 3 of their papers we have counts for

collaborators

10 papers

physics.ins-det2020

Effect of dc voltage pulsing on high-vacuum electrical breakdowns near Cu surfaces

Anton Saressalo, Iaroslava Profatilova, William L. Millar +4

Vacuum electrical breakdowns, also known as vacuum arcs, are a limiting factor in many devices that are based on application of high electric fields near their component surfaces.…

physics.ins-det201922 cited

Classification of vacuum arc breakdowns in a pulsed DC system

Anton Saressalo, Iaroslava Profatilova, Andreas Kyritsakis +4

Understanding the microscopic phenomena behind vacuum arc ignition and generation is crucial for being able to control the breakdown rate, thus improving the effectiveness of many…

cond-mat.mtrl-sci2019

Growth mechanism for nanotips in high electric fields

Ville Jansson, Ekaterina Baibuz, Andreas Kyritsakis +5

In this work we show using atomistic simulations that the biased diffusion in high electric field gradients creates a mechanism whereby nanotips may start growing from small surfac…

cond-mat.mtrl-sci2019

Tungsten migration energy barriers for surface diffusion: a parameterization for KMC simulations

Ville Jansson, Andreas Kyritsakis, Simon Vigonski +4

We have calculated the migration barriers for surface diffusion on Tungsten. Our results form a self-sufficient parameterization for Kinetic Monte Carlo simulations of arbitrarily…

cond-mat.mes-hall2019

Ab Initio calculation of field emission from metal surfaces with atomic--scale defects

Heikki Toijala, Kristjan Eimre, Andreas Kyritsakis +2

In this work we combine density functional theory and quantum transport calculations to study the influence of atomic--scale defects on the work function and field emission charact…

cs.CE2019

Dynamic coupling between particle-in-cell and atomistic simulations

Mihkel Veske, Andreas Kyritsakis, Kyrre Ness Sjobak +3

We propose a method to directly couple molecular dynamics, finite element method and particle-in-cell techniques to simulate metal surface response to high electric fields. We use…