Main-Content

Deutsch

Institute
Research
- - Research Key Topics
  - Research Departments
Doctoral Program
Career
News
- - Public Events
  - Scientific Events
Members
- - Active Members
  - Alumni Network

Deutsch

Max Planck Institute for Sustainable Materials

Home
Research
Research Departments
Structure and Nano-/ Micromechanics of Materials
Research Projects
Influence of grain boundary segregation on microscale strengthening of Cu bicrystals

Copyright Max-Planck-Institut für Eisenforschung GmbH

Publications of Yuting Qin

All genres

Journal Article (1)

Journal Article (1)

Journal Article

He, C.; Qin, Y.; Stein, F.: Thermodynamic Assessment of the Fe–Al–Nb System with Updated Fe–Nb Description. Journal of Phase Equilibra and Diffusion 38 (5), pp. 771 - 787 (2017)

MPG.PuRe

DOI

Department Homepage
Research Groups
Research Projects
Closed Projects
Equipment & Facilities
Publications
Members
Workshops
Awards
Visitors
Career

Researcher

Dr. James Paul Best

Former member, Guest Group Leader j.best@...

Funded by

Project: "Correlating the State and Properties of Grain Boundaries"

Other Interesting Articles

Illustration comparing lithium-ion and solid-state batteries.

Understanding the short circuit in solid-state batteries

April 23, 2026

Max Planck team explains dendrite propagation, paving the way for safer and longer-lasting next-generation batteries. They publish their findings in the journal Nature.

Icons showing scrap, low grade ores and industrial waste at the beginning of a road leading to CO2-free metal bars.

Turning scrap into high-performance steel

April 10, 2026

microstructure and properties sustainability

Max Planck team participates in EU project exploring the influence of residual elements in recycled steel

Hydrogen bus near wind turbines, solar panels and hydrogen storage tanks.

Stainless steel for the hydrogen economy

February 03, 2026

harsh conditions microstructure and properties

Passivation strategy overcomes corrosion and hydrogen embrittlement

Illustration of atomic structure highlighting aluminum, magnesium, and hydrogen atoms. A color scale denotes trapping energy variations, with a lattice network depicting atomic connections.

Stronger and safer: new design strategy for aluminium combines strength with hydrogen embrittlement resistance

April 30, 2025

harsh conditions hydrogen microstructure and properties sustainability

International researcher team develops scalable aluminium alloys for the hydrogen economy

Bright yellow and blue pipelines in an industrial setting.

New design strategy for high-performance steels

July 09, 2024

hydrogen microstructure and properties

International research team develops steel for liquid gas transport and storage. Results now published in the journal Science.

A yellow zigzag line overlays a blue background with red patterns resembling abstract shapes.

Seeing light elements in a grain boundary

August 01, 2023

method development microstructure and properties

A further step in unravelling materials’ properties down to the atomic scale

Towards defect engineering: identifying universal structures on the atomic scale

February 15, 2023

microstructure and properties

Researchers of the Max-Planck-Institut für Eisenforschung publish their latest findings in the journal Physical Review B

Sustainable, ultra-strong and ductile steel through advanced processing

January 17, 2023

green steel microstructure and properties sustainability

International researcher team presents a novel microstructure design strategy for lean medium-manganese steels with optimized properties in the journal Science

Better magnets for green energy

August 10, 2022

innovative materials magnetic materials microstructure and properties

Researchers use multicomponent alloys to make strong and ductile soft magnetic materials. Latest results now published in the journal Nature

What happens in material imperfections at the atomic level?

November 23, 2021

microstructure and properties

Video with Christian Liebscher about his latest research results

New partner group on high-performance materials at MPIE

July 14, 2021

award hydrogen microstructure and properties

Max Planck Society funds Slovenian-German research group

Laser powder bed fusion based pure copper lattice fabrication and characterization

harsh conditions microstructure and properties

Within this project, we will use a green laser beam source based selective melting to fabricate full dense copper architectures. The focus will be on identifying the process parameter-microstructure-mechanical property relationships in 3-dimensional copper lattice architectures, under both quasi-static and dynamic loading conditions.

Top

Contact & Directions
Linkedin
YouTube
Self Service

Max-Planck-Gesellschaft

Imprint
Data Protection
Accessibility

2026, Max-Planck-Gesellschaft

Web-View

Print Page

Open in new window

Estimated DIN-A4 page-width

Go to Editor View