Fields of action and core competencies

Fields of action

Strengthening Key Technologies and Strategic
Research Areas of the German High-Tech
Agenda (HTAD)

  • Transfer services for companies, from proof of
    concept to scaling
  • Demonstrators in key technologies such as batteries,
    hydrogen, aviation and NewSpace
  • Establishment and operation of technology
    platforms, pilot lines and research infrastructures 
  • ...

Digitalization in materials science and
engineering

  • Semantic Data Models, Ontologies and Interoperable
    Material Data Management
  • Data-Driven Simulation, Process Mapping and Digital
    Value Chains
  • Development of Material Data Spaces and Digital
    Material Twins 
  • ...

Use of AI Methods for Material and Process
Development

  • AI-powered material development and formulation
    optimization
  • Intelligent process monitoring, fault detection, quality
    prediction and quality assurance
  • Data-driven decision models for service life,
    performance and condition assessment
  • ...

Efficient use of raw materials, renewable systems, recyclable materials, product quality

  • Recycling, disassembly and design-for-recycling
  • Recovery, treatment and processing of secondary
    raw materials and critical materials
  • Quality assessment, material flow analysis and lifecycle
    assessment of recycled materials and circular
    processes
  • ...

Smart, cost-effective material utilization concepts / sustainable lightweight engineering

  • Design, joining technology and manufacturing
    processes for material-efficient, high-performance
    components
  • Assessment of the service life, reliability and
    sustainability of efficiency solutions
  • Development of sustainable and cost-effective
    lightweight and hybrid structures
  • ...

Supporting the Energy Transition Through
Systems for Energy Generation, Conversion,
Storage and Distribution

  • Material and component development for batteries,
    hydrogen, PV and wind energy systems
  • Process development, scaling and testing of energyrelated
    materials and systems
  • Lifespan, safety and sustainability assessments for
    energy technologies
  • ...

Safety, cost-effectiveness and comfort e.g.
for mobility, construction, energy technology,
mechanical and plant engineering

  • Safety, reliability and damage analyses
  • Development of sustainable material solutions for
    construction, mobility, mechanical engineering,
    energy and environmental technology
  • Testing, monitoring and evaluation methods for safe
    and cost-effective operation
  • ...

Biological transformation of materials and
processes

  • Development of bio-based, biodegradable and
    biological materials
  • Biotechnological and biocatalytic process
    development for materials and fine chemicals
  • Chemical-biotechnological recycling and circular
    economy solutions
  • ...

Core competencies

Material design,
development and
synthesis

 

  • Organic materials
  • Inorganic (non-)metallic materials
  • Composites and hybrid materials

Material and component
characterization

 

 

  • Physical
  • Biological, biophysical, biochemical
  • Chemical / elektrochemical
  • Mechanical

Material processing and
process technologies

 

 

  • Process technology and
    production of samples
  • Manufacturing of semifinished
    products, components/products
  • Plant engineering
  • Recycling

Modeling,
(multiscale) simulation,
MaterialDigital

 

  • Development of digital methods
  • Material simulation down to
    the nanoscale
  • Component simulation
  • System and process simulation

Evaluation methods /
evaluation: materials,
components, systems

 

  • Behavior under laboratory, plant and 
    environmental conditions
  • Circularity and resource efficiency
  • Resilient behavior
  • Energy technology systems
    and processes