All four H2020 projects involve chemical synthesis capabilities, from antibacterial targets (INTEGRATE) to compound libraries (ESCulab).
TAROS CHEMICALS GMBH & CO KG
German chemistry SME providing contract synthesis, compound libraries, and high-throughput screening for pharmaceutical and biotech R&D consortia.
Their core work
Taros Chemicals is a Dortmund-based contract research and chemical services SME specializing in medicinal chemistry, compound library synthesis, and high-throughput screening. They provide enabling chemistry services — from custom synthesis of drug-like molecules to flow chemistry and process optimization — primarily serving pharmaceutical and biotech clients. In H2020, they contributed chemical expertise to training networks focused on antibiotic discovery, protein-protein interaction modulators, and advanced synthesis technologies.
What they specialise in
ESCulab focused explicitly on screening centre libraries, and TASPPI on targeted small-molecule discovery requiring screening infrastructure.
TECHNOTRAIN (2018-2022) focused on flow synthesis, 3D-printing in chemistry, organocatalysis, and photocatalysis — signaling a move toward advanced manufacturing methods.
INTEGRATE (2015-2018) targeted validation of Gram-negative antibacterial targets, a critical area given rising antimicrobial resistance.
TASPPI (2016-2020) worked on small-molecule stabilisation of protein-protein interactions, a challenging frontier in drug design.
How they've shifted over time
Taros's early H2020 work (2015-2017) centered on classical medicinal chemistry — providing compound synthesis for drug target validation in antibacterials and protein-protein interactions. By 2018, their focus shifted toward advanced enabling technologies: flow chemistry, 3D-printing for chemical synthesis, organocatalysis, and photocatalysis (TECHNOTRAIN), alongside large-scale compound library curation for biological screening (ESCulab). This evolution suggests a deliberate move from pure bench chemistry toward technology-driven, automated synthesis methods.
Taros is moving from traditional contract synthesis toward technology-enabled chemistry (flow, automation, photocatalysis), positioning itself as a partner for projects that need modern, scalable synthesis infrastructure.
How they like to work
Taros participates exclusively as a partner, never as coordinator — consistent with an SME providing specialized chemistry services within larger academic-led consortia. With 39 unique partners across 13 countries from just 4 projects, they operate in large, multinational training networks and research alliances. This pattern suggests they are a trusted service provider that research groups bring in when they need professional compound synthesis and screening capabilities.
Taros has built a broad European network of 39 partners across 13 countries through just 4 projects, indicating participation in large MSCA training networks with wide geographic spread. Their connections are predominantly in the academic pharmacology and chemistry training space.
What sets them apart
Taros occupies a specific niche: they are a private SME that bridges the gap between academic drug discovery and industrial chemistry. Unlike university labs, they offer professional compound library management and contract synthesis with commercial reliability. Their combination of medicinal chemistry expertise with emerging flow and automated synthesis technologies makes them a practical partner for consortia that need real-world chemical production capabilities alongside academic research.
Highlights from their portfolio
- ESCulabLargest funding (EUR 292,600) and their only Health-pillar project, contributing to a European-scale screening centre with unique compound libraries for biological assays.
- TECHNOTRAINRepresents their strategic pivot toward enabling technologies — flow chemistry, 3D-printing, photocatalysis — signaling future direction of their capabilities.
- INTEGRATEAddressed the critical public health challenge of Gram-negative antibiotic resistance, demonstrating Taros's relevance to infectious disease drug discovery.