SciTransfer
Organization

NEW JERSEY INSTITUTE OF TECHNOLOGY

US research university contributing computational simulation, nanomedicine, and computer vision expertise to European consortia through MSCA mobility programs.

University research groupmultidisciplinaryUSThin data (2/5)
H2020 projects
4
As coordinator
0
Total EC funding
Unique partners
38
What they do

Their core work

NJIT is a US-based public research university that contributes specialized expertise to European research consortia through Marie Skłodowska-Curie mobility actions. Their H2020 involvement spans computational fluid dynamics for high-speed turbomachinery, nanomedicine and advanced bioimaging, computer vision for forensics, and large-scale IoT network research. As a third-party contributor in all four projects, they provide deep technical know-how in simulation, imaging, and computational methods to EU-led teams.

Core expertise

What they specialise in

Computational fluid dynamics and aeroacousticsprimary
1 project

AEROSIMULAT focuses on high-order Galerkin methods for simulating compressible turbulent flow in next-generation gas turbines.

Nanomedicine and advanced bioimagingprimary
1 project

Micro4Nano develops multifunctional nanocarriers with novel fluorophores for nonlinear microscopy applied to ex vivo tissue imaging.

Computer vision and multimedia forensicssecondary
1 project

IDENTITY project applied computer vision techniques to multimedia forensics and people identification.

IoT and large-scale network architecturessecondary
1 project

TACTILENet addressed agile, efficient, and autonomous massive-scale networks of things.

Evolution & trajectory

How they've shifted over time

Early focus
Digital technologies and ICT
Recent focus
Simulation and nanomedicine

NJIT's early H2020 involvement (2016–2019) centered on applied digital technologies — computer vision for forensics and massive IoT network design — with no detailed keyword footprint in the data. From 2020 onward, their focus shifted decisively toward physics-based simulation and biomedical applications, including high-performance aerodynamics computing and nanocarrier-based bioimaging. This suggests a move from broad ICT participation toward more specialized, computationally intensive research domains.

NJIT is moving toward computationally demanding scientific problems — high-performance simulation and advanced microscopy — suggesting future collaborations will likely involve HPC, numerical methods, or biomedical imaging.

Collaboration profile

How they like to work

Role: third_party_expertReach: Global25 countries collaborated

NJIT participates exclusively as a third-party contributor through MSCA mobility schemes, never as a coordinator or direct consortium partner. Despite this peripheral role, they have connected with 38 unique partners across 25 countries, indicating broad international exposure through staff exchanges. Working with NJIT means tapping into a US-based research team comfortable operating within EU framework rules, primarily through researcher mobility rather than direct project management.

Through four MSCA projects, NJIT has worked with 38 unique partners across 25 countries, reflecting the large, multi-partner nature of MSCA-RISE staff exchange networks. Their reach is genuinely global, connecting European consortia to US-based expertise.

Why partner with them

What sets them apart

As a US university participating in EU projects, NJIT offers something most European partners cannot: a transatlantic bridge for researcher mobility and knowledge exchange under MSCA schemes. Their dual strength in high-performance computing for engineering simulation and biomedical nanoscience makes them versatile across disciplines. For consortium builders, NJIT adds geographic diversity and access to US research infrastructure without the complexity of a full US partner agreement.

Notable projects

Highlights from their portfolio

  • AEROSIMULAT
    Combines high-performance computing with high-order numerical methods for next-generation gas turbine design — a technically demanding and industrially relevant simulation challenge.
  • Micro4Nano
    Bridges microfluidics and nanomedicine for advanced bioimaging tools, with the longest project duration (2021–2026) indicating sustained research commitment.
Cross-sector capabilities
transport (aerodynamics and gas turbine simulation)health (nanomedicine and bioimaging)digital (computer vision and IoT networks)energy (high-speed turbomachinery optimization)
Analysis note: Profile based on only 4 projects, all as third-party contributor with no recorded EC funding. Two early projects lack keywords entirely, limiting evolution analysis. NJIT's actual research capabilities are certainly broader than what this H2020 footprint reveals — this profile reflects only their EU-funded collaboration activity.