Materials scientist · Düsseldorf

Designing metals that learn, adapt, and endure.

Group Leader for Artificial Intelligence in Materials Science at the Max Planck Institute for Sustainable Materials—bridging physical metallurgy, autonomous materials design and sustainable processing.

Nature CommunicationsAdvanced ScienceActa Materialia
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Research atlas / 01

From physical mechanisms to autonomous discovery.

My research connects metallurgical insight with modern computational intelligence. The goal is not prediction alone, but experimentally grounded design rules that remain interpretable, transferable and useful.

R.01

Autonomous materials design

Physics-informed, uncertainty-aware and generative learning frameworks that connect composition, processing, microstructure and performance.

  • Active learning
  • Inverse design
  • Uncertainty
R.02

Sustainable metallurgy

Scrap-tolerant alloy design, circular processing and machine-guided strategies that reduce reliance on primary critical resources.

  • Circular alloys
  • Residual Cu
  • Critical materials
R.03

Green steelmaking

Mechanistically interpretable models of hydrogen-based direct reduction, bridging transformation kinetics and process intensification.

  • HyDR
  • Kinetics
  • Constitutive learning
R.04

Complex metallic systems

Composition–structure–property relations in metallic glasses, high-entropy alloys and other compositionally complex materials.

  • Metallic glasses
  • HEAs
  • Mechanical behavior

Selected work / 02

Research built across disciplinary boundaries.

Complete publication profile
2026Nature Communications

Attention-enhanced variational learning for physically informed discovery of exceptionally hard multicomponent bulk metallic glasses

A. Bajpai, J. Wang, B. Ratzker, B. M. Sesen, F. Kark & D. Raabe

Editors’ Highlight
2026Acta Materialia

Coupled influence of structural relaxation and compositional complexity on deformation behavior and intermittent plasticity in Cu–Zr-based metallic glasses

A. Bajpai, J. Wang, B. Ratzker, R. Miyar, H. Holz, N. P. Gurao, K. Biswas & D. Raabe

Amorphous alloys
2026Advanced Science

Physics-constrained constitutive learning of rate-limiting timescales for efficient hydrogen-based direct reduction for green steelmaking

A. Bajpai, B. Ratzker, P. Cavaliere & D. Raabe

Green steel
2026npj Computational Materials

Compositional complexity buffers free-volume sensitivity and serrated flow in metallic glasses

A. Bajpai, J. Wang & D. Raabe

Metallic Glasses
2026Computational Materials Science

Deformation zone connectivity governs time-dependent load relaxation in Cu–Zr-based metallic glasses

A. Bajpai, J. Wang & D. Raabe

Editor’s Choice
2024Philosophical Transactions A

Active learning strategies for design of sustainable alloys

Z. Rao*, A. Bajpai* & H. Zhang · *equal contribution

Perspective

22 peer-reviewed publications

12 first / equal-first author works

01 research monograph

01 published patent

Leadership / 03

Building research systems—and the teams behind them.

At MPI-SusMat, I coordinate researchers across machine learning, thermodynamics, microstructure analysis, alloy processing and structural properties, with a focus on coherent computational– experimental workflows.

AI × metallurgy06researchers
3Postdoctoral researchers
1PhD researcher
2Master’s students
L.01

Scientific direction

Research planning, framework development, technical mentoring and integration of physical modelling with experimental validation.

L.02

Collaborative programmes

PI-level materials-design work packages and international proposals in sustainable alloys, autonomous metallurgy and causal materials design.

L.03

Professional service

Symposium co-organization, guest editing, peer review and early-career mentoring across materials science and machine intelligence.

Trajectory / 04

A practice shaped by research and engineering.

From industrial vehicle engineering to physical metallurgy and autonomous materials discovery, each stage adds a distinct systems-level perspective.

2024—presentCurrent

Group Leader · Artificial Intelligence for Materials Science

Max Planck Institute for Sustainable Materials · Düsseldorf

Leading an international multidisciplinary team and developing physics-informed, uncertainty-aware workflows for autonomous metallurgy.

2024—2026

Alexander von Humboldt Postdoctoral Fellow

Max Planck Institute for Sustainble Materials · Düsseldorf

Integrated thermodynamic reasoning, experimental metallurgy and interpretable machine learning across metallic materials systems.

2023—2024

Max Planck Gesellschaft Postdoctoral Fellow

Max Planck Institute for Iron Research · Düsseldorf

Integrated thermodynamic reasoning, experimental metallurgy and interpretable machine learning across metallic materials systems.

2017—2023

M.Tech–PhD Dual Degree · Materials Science and Engineering

Indian Institute of Technology Kanpur · India

Compositional design, thermal stability and mechanical behavior of multicomponent metallic glasses. GPA 8.3/10.

2015—2016

Technical Manager · Vehicle Layout Operations

Tata Motors · India

Engineering experience in vehicle layout operations before doctoral research.

2011—2015

Bachelor of Engineering · Materials and Metallurgical Engineering

Punjab Engineering College, Chandigarh · India

Foundation in metallurgical engineering and materials processing. GPA 7.7/10.

Recognition / 05

Selected honours and research distinctions.

Recognition spanning international fellowships, journal distinctions, invited scholarship and award-winning research communication.

01

Editors’ Highlight

Nature Communications · Materials science and chemistry theme

02

Editor’s Choice Article

Computational Materials Science · April 2026

03

Alexander von Humboldt Fellowship

Postdoctoral research at MPI-SusMat

04

Max Planck Gesellschaft Fellowship

Postdoctoral research at MPIE

05

Journal of Materials Research cover

Machine-learning-assisted design of multicomponent metallic glasses

06

ACS Sustainable Chemistry & Engineering cover

Conducting graphene synthesis from electronic waste

Methods / 06

One research language, multiple scales.

The work moves deliberately between computation, thermodynamics, processing and characterization—because robust materials design rarely lives inside a single method.

01

Computational materials science

CALPHAD-informed thermodynamics · atomistic simulation · molecular dynamics · composition–processing–property modelling

02

Machine learning

Active learning · transfer learning · generative modelling · uncertainty quantification · symbolic regression · model interpretation

03

Experimental metallurgy

Vacuum arc melting · mechanical alloying · cryomilling · heat-treatment design · mechanical characterization

04

Characterization

Synchrotron XRD · SEM · EPMA · DSC · nanoindentation · AFM · Raman · XPS · microstructure quantification

BOOK / 2025

Beneficiation and Management of Technological Waste

CRC Press · with Krishanu Biswas and Arunabh Meshram

PATENT / 2024

Electric switch casing from waste printed circuit boards

Published Indian patent application · 202411011268

Contact / Düsseldorf

Let’s build better materials—and better ways to discover them.

I welcome conversations on autonomous materials design, sustainable metallurgy, complex metallic systems and collaborative research programmes.

Emaila.bajpai@mpi-susmat.de
Institution

Max Planck Institute for Sustainable Materials

Location

Düsseldorf, Germany

Profiles

Publications ↗Academic profile ↗