SciTransfer
Organization

DALIAN INSTITUTE OF CHEMICAL PHYSICS CHINESE ACADEMY OF SCIENCES

Chinese Academy of Sciences institute specialising in CO2 conversion catalysis, photocatalysis, and solar-driven methanol synthesis.

Research instituteenergyCNNo active H2020 projectsThin data (2/5)
H2020 projects
2
As coordinator
0
Total EC funding
Unique partners
32
What they do

Their core work

The Dalian Institute of Chemical Physics (DICP) is one of China's foremost chemistry research institutes, operating under the Chinese Academy of Sciences and internationally recognized for catalysis, energy chemistry, and chemical engineering. Their H2020 work focuses on two interconnected challenges: converting biomass waste into useful products while capturing CO2, and driving the conversion of CO2 directly into methanol using only sunlight. In both cases their contribution is at the catalyst level — designing and testing the materials that make these chemical reactions work efficiently. DICP brings deep synthetic chemistry expertise into international consortia, typically supplying specialized catalyst knowledge that European partners lack in-house.

Core expertise

What they specialise in

Photocatalysis and solar-driven CO2 conversionprimary
1 project

In METHASOL (2021-2024), DICP worked on converting CO2 into methanol under solar light using photocatalytic systems including Z-scheme heterojunctions and oxygen evolution reactions.

Catalyst design for carbon utilisationprimary
2 projects

Catalysis appears as a core contribution across both projects — heterogeneous catalysis for biomass gasification in BIOMASS-CCU and photocatalytic materials in METHASOL.

Biomass gasification and negative-emission processessecondary
1 project

BIOMASS-CCU (2019-2023) combined biomass gasification with CO2 capture, targeting negative carbon emissions through combined thermochemical and capture routes.

CO2 capture and utilisation (CCU)secondary
2 projects

Both projects address CO2 as a resource rather than a waste stream — captured from gasification in BIOMASS-CCU and directly converted in METHASOL.

Methanol synthesis from renewable feedstocksemerging
1 project

METHASOL targets selective methanol production from CO2 under solar light, pointing toward solar fuel and Power-to-X applications.

Evolution & trajectory

How they've shifted over time

Early focus
Biomass gasification, carbon capture
Recent focus
Solar photocatalysis, CO2-to-methanol

DICP entered H2020 collaboration through thermochemical routes — biomass gasification combined with CO2 capture, a relatively conventional (if ambitious) approach to negative-emission chemistry. Their more recent engagement shifted decisively toward light-driven chemistry: photocatalysis, Z-scheme heterojunctions, and direct sunlight-to-fuel conversion, which represents a fundamentally different technological family. The trend is a move from high-temperature process chemistry toward room-temperature, solar-powered catalytic systems — reflecting the broader global shift in energy chemistry research priorities toward solar fuels and artificial photosynthesis.

DICP is moving toward solar-driven artificial photosynthesis — if this direction continues, they will be a relevant partner for any consortium working on green hydrogen, solar fuels, or photocatalytic CO2 valorisation.

Collaboration profile

How they like to work

Role: specialist_contributorReach: Global13 countries collaborated

DICP participates exclusively as a partner or third party — they have never coordinated an H2020 project — which is consistent with the typical role of non-EU institutions in Horizon programmes, where coordination is restricted to EU/associated countries. Despite their peripheral formal role, they access a surprisingly wide network: 32 unique partners across 13 countries from just two projects, suggesting they join large, well-connected consortia. Working with DICP means gaining access to Chinese catalysis infrastructure and expertise that would be difficult to replicate within European institutions, in exchange for their entry point into EU-funded collaboration networks.

With 32 unique consortium partners across 13 countries, DICP punches well above its project count in terms of network breadth. Their geographic reach extends well beyond Asia — their EU project links connect them to a broad European and international research community in energy and chemistry.

Why partner with them

What sets them apart

DICP is one of a very small number of Chinese Academy of Sciences institutes with active H2020 participation, giving them credibility in both Eastern and Western research systems simultaneously. Their specific combination of thermochemical process knowledge (gasification, carbon capture) and advanced photocatalysis (Z-scheme heterojunctions, solar CO2 conversion) is rare — most European institutes specialise in one or the other. For a consortium that needs a credible Chinese partner with deep catalysis capability and a track record in EU-funded projects, DICP is one of the few institutions that can genuinely fill that role.

Notable projects

Highlights from their portfolio

  • METHASOL
    Tackles one of the most competitive frontiers in energy chemistry — direct solar conversion of CO2 to methanol — with DICP contributing advanced photocatalyst design including Z-scheme heterojunctions, a relatively sophisticated approach to charge separation.
  • BIOMASS-CCU
    An MSCA-RISE project combining biomass gasification with CO2 capture and utilisation, notable for its negative-emission framing and for involving DICP as a mobility partner under the Marie Skłodowska-Curie scheme — enabling researcher exchanges between China and Europe.
Cross-sector capabilities
Environment and climate (CO2 capture, negative emissions)Chemical manufacturing (catalyst development, methanol production)Materials science (heterojunction photocatalysts, functional materials)
Analysis note: Only 2 projects in H2020, both as non-lead partner/third party, with no EC funding figures available. The keyword data is specific and technically coherent, which raises confidence above the minimum, but the profile should be treated as indicative rather than definitive. The evolution analysis (thermochemical → photocatalytic) is based on a single project shift and could reflect consortium topic selection as much as DICP's own strategic direction.