Research Projects

Ongoing projects

Overcoming the Brittleness of Oxide Glasses by Surface Aging

In this project, we will explore the use of aging in humid atmosphere to enable certain oxide glasses to undergo self-healing and exhibit ultra-high damage resistance. Experiments will be complemented by reactive molecular dynamics simulations.

Time period: 2020-2025

Funding: Independent Research Fund Denmark | Technology and Production Sciences (2,878,000 DKK)

Project publications

European Spallation Source Lighthouse: Hard Materials in 3D (SOLID)

We are part of the cross-disciplinary center SOLID (https://solid.dtu.dk/), which aims at visualizing the internal structure of materials in 3D on all relevant length and time scales using the world most powerful neutron and x-ray sources. We are involved in the work package on amorphous materials, where we will characterize deformation mechanisms in oxide glasses on all relevant length scales.

Time period: 2020-2026

Funding: Danish Agency for Science and Higher Education (our share: 2,120,000 DKK)

Project publications

Deciphering Nanoporosity of Amorphous Materials using Topological Data Analysis 

In this collaborative project, we will extend the mathematical theory in topological data analysis to develop tools for characterizing the chemical configuration of tunnels and voids inside amorphous materials.

Time period: 2021-2026

Funding: Independent Research Fund Denmark | Natural Sciences (6,128,000 DKK)

Project publications

TOUGH: Toward Tough Amorphous Electrolytes and Stable Interfaces in Solid-State Batteries

In this EU-funded TOUGH project, we will explore the mechanical behavior of amorphous solid electrolyte/electrode interfaces

Time period: 2022-2024

Funding: Marie Skłodowska-Curie Individual Fellowship, EU Horizon 2020 (219,000 EUR)

Project publications

Computational Design of Disordered Electrode Materials for Batteries

In this project, we aim to develop new amorphous electrolyte materials for solid-state batteries with a combination of high ionic conductivity and high fracture toughness. 

Time period: 2022-2025

Funding: Danish Data Science Academy, PhD Fellowship (1,890,000 DKK)

Project publications

Preventing Micro-Cracks in Amorphous Solid-State Electrolytes for Batteries

In this project, we aim to develop new amorphous electrolyte materials for solid-state batteries with a combination of high ionic conductivity and high fracture toughness. 

Time period: 2022-2025

Funding: Independent Research Fund Denmark | Thematic Research (2,874,000 DKK)

Project publications

NewGLASS: New Horizons in Glass Structure Prediction and Mechanics

In this project, we aim to first identify structural descriptors at the short- and medium-range length scales and then use these to design novel glasses with tailored deformation mechanisms and microstructures to achieve superior fracture resistance.

Time period: 2022-2027

Funding: European Research Council (ERC) Consolidator Grant (1,997,000 EUR)

Project publications

RELAX: Revealing the Hidden Mechanism of Room Temperature Relaxation in Glasses

In this EU-funded RELAX project, we will work on the correlation between glass structure and relaxation using diffraction and molecular dynamics methods

Time period: 2023-2024

Funding: Marie Skłodowska-Curie Postdoctoral Fellowship, Horizon Europe (231,000 EUR)

Project publications

DrugMOF: Disordered Metal-Organic Frameworks for Drug Delivery

In this EU-funded DrugMOF project, we will attempt to identify which structural features are best correlated with the drug release rate in disordered MOFs

Time period: 2023-2025

Funding: Marie Skłodowska-Curie Postdoctoral Fellowship, Horizon Europe (231,000 EUR)

Project publications

Flexible Screen Protectors

In collaboration with PanzerGlass, we will attempt to develop a new class of strong, flexible, and transparent screen protectors for non-flat mobile devices.

Time period: 2023-2026

Funding: Industrial PhD, Innovation Fund Denmark  (1,072,000 DKK)

Project publications

Liquid magic: Self-healing glasses from porous liquids

This exploratory project aims to prepare self-healing glasses by using a recently discovered class of porous liquids to make glass composite materials.

Time period: 2024-2026

Funding: Villum Experiment, VILLUM Foundation  (1,934,000 DKK)

Project publications

Inverse Design of Materials Using Diffusion Probabilistic Models 

In collaboration with Prof. Jilin Hu, we attempt to develop diffusion probabilistic models to first learn the connection between chemistry/structure and material properties and then allow an inverse design of novel glass-ceramic materials.

Time period: 2024-2026

Funding: Villum Synergy, VILLUM Foundation  (2,998,000 DKK)

Project publications

Previous projects

ToughMOF: Tailoring Metal-Organic Framework Glasses with Higher Fracture Toughness 

Time period: 2021-2023

Funding: Marie Skłodowska-Curie Individual Fellowship, EU Horizon 2020 (207,000 EUR)

Project publications

GLASSphase: Toward Tough Glasses with Controlled Nanoscale Heterogeneities

Time period: 2020-2022

Funding: Marie Skłodowska-Curie Individual Fellowship, EU Horizon 2020 (207,000 EUR)

Project publications

Tailoring the Structure of Disordered Solids using Statistical Mechanics

Time period: 2017-2021

Funding: Independent Research Fund Denmark | Technology and Production Sciences  (2,577,000 DKK)

Project publications

Self-Healing Cover Glass for Mobile Devices

Time period: 2020-2021

Funding: InnoExplorer, Innovation Fund Denmark  (1,489,000 DKK)

Project publications

Glass Mechanical Properties: Structural Origins and Engineering

Time period: 2016-2021

Funding: VILLUM Fonden Research Project (10,034,000 DKK)

Project publications

DFF-Danish ERC-Programme: Towards the Design of Ductile Oxide Glasses from the Bottom-Up

Time period: 2018-2020

Funding: Independent Research Fund Denmark | Technology and Production Sciences  (907,000 DKK)

Project publications

Fundamentals of Glass Relaxation

Time period: 2015-2018

Funding: Corning Incorporated

Project publications

Atomistic Design of Chemically Durable Glasses

Time period: 2015-2018

Funding: VILLUM Fonden Postdoctoral Programme (1,168,000 DKK)

Project publications

Topological and Chemical Principles for Designing Novel Oxynitride Glasses

Time period: 2014-2017

Funding: Lundbeck Foundation (1,300,000 DKK)

Project publications

Topological Basis of Compressed Inorganic Glass Properties

Time period: 2013-2017

Funding: DFF-Starting Grant, Danish Council for Independent Research (7,046,000 DKK)

Project publications 

Equipment funding

Finding Order in Disorder by Laboratory X-Ray Total Scattering Experiments

Hard X-ray diffractometer

Time of purchase: 2024

Funding: Carlsberg Foundation (2,303,000 DKK)

Precision cutting machine for optimizing the mechanical properties of glass

Secotom-60 (Struers)

Time of purchase: 2022

Funding: Myhrwolds Fond (100,000 DKK)

Equipment for characterization of micro-mechanical properties of glass

38DL+ Ultrasonic Thickness Gauge (Olympus)

CB500 Micro Module Mechanical Tester (Nanovea)

Time of purchase: 2017

Funding: Obel Family Foundation (615,000 DKK)

Simultaneous thermal analyzer (STA) 

Netzsch STA 449F1 Jupiter® calorimeter with TM-DSC module software extension 

Time of purchase: 2014

Funding: Obel Family Foundation (590,000 DKK)

CPU/GPU access

Melting and glass formation of metal-organic frameworks 

Benchmark and Development Access for HPC Vega 

Time of access: 2021-2022

Funding: EuroHPC (896,000 CPU core hours)

Mechanical Properties of Non-Oxide Glassy Electrolytes 

LUMI-C Sandbox Project

Time of access: 2022

Funding: DeiC (2,500,000 CPU core hours)

Water in disordered materials: friend or foe? 

LUMI-C Capability HPC

Time of access: 2022

Funding: DeiC (1,600,000 CPU core hours)

Correlating structure with fracture toughness in disordered materials 

Regular Access for HPC Vega 

Time of access: 2022-2023

Funding: EuroHPC (10,000,000 CPU core hours)

Molecular dynamics simulations of glassy MOFs using machine learning force fields  

Benchmark and Development Access for HPC Vega 

Time of access: 2023

Funding: EuroHPC (51,200 GPU core hours)