novoMOF supplies high‑performance metal‑organic frameworks (MOFs) designed for efficient CO₂ adsorption and low‑energy regeneration, enabling technology providers to build compact, cost‑effective capture units for industrial and decentralized emitters. Their MOFs offer high CO₂ capacity, strong CO₂/N₂ selectivity, and robust operation under humid conditions, supporting system integration and lifecycle management to achieve capture costs below €100 per tonne.
Funding
$5.4M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
IFounders
Product
Problem
Industrial CO₂ emitters and decentralized biogenic sources face high energy costs, large equipment footprints, and complex handling requirements when using traditional carbon capture technologies such as amine scrubbing, limiting deployment and profitability.
Solution
novoMOF supplies high‑performance metal‑organic frameworks (MOFs) engineered for CO₂ adsorption and low‑energy regeneration. These porous crystalline powders deliver high CO₂ working capacity, strong CO₂/N₂ selectivity, and stable operation under humid conditions, enabling compact capture units that can be integrated into existing process streams. By partnering with technology providers, novoMOF co‑engineers system designs that achieve capture costs below €100 per tonne, with predictable material lifetimes of 3–5 years. The modular nature of the MOFs supports both large‑scale industrial plants and small, decentralized facilities, allowing customers to meet regulatory targets, generate carbon credits, and create revenue streams from captured CO₂ utilization.
Target Audience
Primary customers are technology providers and engineering firms developing CO₂ capture solutions for industrial emitters, as well as operators of decentralized biogenic CO₂ sources seeking compact, cost‑effective capture systems.
Features
- High surface area (up to 7 000 m² g⁻¹) providing exceptional CO₂ uptake capacity
- Tunable pore chemistry and size for optimized selectivity and low regeneration temperature
- Low regeneration energy consumption, up to 2.7× less than conventional amine systems
- Robust performance in high humidity and presence of acidic gases (SO₂, NO₂)
- Scalable production from kilogram to industrial volumes with consistent powder handling properties
- Co‑engineering support for system integration, pilot deployment, and lifecycle management
- Recyclable, non‑toxic material enabling sustainable capture cycles