Energy and Industrial Technology Solutions

Euro Energy Horizons develops and integrates advanced technologies that support the transition toward resilient, efficient, and sustainable industrial and energy systems. The company focuses on the deployment of modern energy infrastructure, circular economy solutions, and innovative resource technologies that address the evolving needs of global markets.

In the field of energy systems, Euro Energy Horizons provides integrated solutions for the generation, storage, and intelligent management of energy. This includes the development and deployment of solar photovoltaic power systems, designed for utility-scale, commercial, and industrial applications. Complementing renewable generation, the company integrates battery energy storage systems that enhance grid stability, enable peak load management, and support the reliable integration of renewable energy sources. For large-scale and long-duration storage applications, Euro Energy Horizons also deploys vanadium redox flow battery technologies, which provide highly scalable, long-cycle storage solutions suitable for grid infrastructure and industrial energy management. These systems are supported by advanced energy management software, enabling real-time monitoring, intelligent dispatch, and optimized performance across complex energy assets.

Beyond energy infrastructure, Euro Energy Horizons contributes to the development of circular economy technologies that convert waste streams into valuable resources. The company supports the deployment of waste-to-energy pyrolysis reactors, which enable the conversion of waste materials into energy carriers and industrial feedstocks, reducing environmental impact while creating new resource streams.

In addition, Euro Energy Horizons develops innovative solutions in the field of water technologies, including atmospheric water generation systems. These technologies capture moisture from ambient air and convert it into potable water, providing sustainable water supply solutions for regions facing water scarcity, remote locations, and infrastructure-constrained environments.

Through the integration of these advanced technologies, Euro Energy Horizons delivers solutions that combine energy generation, storage, resource recovery, and environmental sustainability, supporting industrial development and the global transition toward cleaner and more efficient infrastructure systems.

Featured technologies

Energy Systems

solar power systems
battery storage systems
vanadium redox flow batteries
energy management software

Circular Economy

waste-to-energy pyrolysis reactors

Water Technologies

atmospheric water generators.

Solar Power Systems

Technology overview
Euro Energy Horizons develops solar power solutions for utility-scale and commercial & industrial applications, combining high-efficiency PV modules, optimized plant architecture, and full system integration. Current premium market products show continued progress in power density and efficiency, with LONGi’s latest back-contact modules reaching up to 670 W and 24.8% module efficiency.

Technical specifications
Representative current solar specifications include monocrystalline high-efficiency modules with output up to 670 W, module efficiency up to 24.8%, and low temperature coefficient performance around -0.26%/°C in current premium products. These characteristics support higher yield per square meter and improved performance in hot-climate and space-constrained projects.

Applications
Typical applications include utility-scale solar parks, C&I self-consumption projects, rooftop and ground-mounted systems, hybrid PV-plus-storage projects, and microgrid solutions where solar is paired with digital controls and storage for dispatchability and resilience.

Project examples
Representative current market references include LONGi’s 200 MW Ningxia utility-scale project, a 620 kWp commercial installation at Pirin Golf & Spa in Bulgaria, and a 2.33 MW industrial project in Ukraine supporting onsite energy resilience.

Integration capability
Solar integrates naturally with LFP BESS, VRFB systems, EMS/DERMS platforms, EV charging, SCADA, and hybrid plant controls. EEH’s own profile positions solar within an EPC and integration framework rather than as standalone equipment supply only.

LFP Battery Energy Storage Systems

Technology overview
LFP battery storage is one of the leading stationary storage technologies for utility-scale and C&I applications because it combines mature manufacturing, strong safety performance, modular deployment, and wide applicability across grid and behind-the-meter use cases. Current official products show large-format liquid-cooled systems in the 5–12.8 MWh class, with CATL’s TENER platform at 6.25 MWh per 20-foot container and HyperStrong’s latest utility products extending beyond that range.

Technical specifications
Representative current utility-scale specifications include 5.016 MWh rated energy, 1,331.2 Vdc rated voltage, 2,500 kW rated power, smart liquid cooling, and operating temperature range from -30°C to 55°C for HyperStrong HyperBlock III. CATL’s TENER platform is published at 6.25 MWh in a 20-foot container with 430 Wh/L cell-level energy density. Official product certifications in this segment commonly include UL 9540A, UL 9540, UL 1973, IEC 62619, IEC 62933-5-2, NFPA 855, and UN38.3.

Applications
LFP BESS is suitable for renewable shifting, peak shaving, frequency regulation, capacity support, backup power, hybrid PV-storage plants, EV charging support, and standalone grid-support projects. DOE materials also place distributed storage alongside PV, EV infrastructure, and hybrid systems in the current DER interconnection and control landscape.

Project examples
Published HyperStrong references include a 101 MW / 202 MWh frequency-regulation project in Haiyang, a 300 MW / 600 MWh wind-PV-storage project in Fuyang, and a 100 MW / 212 MWh standalone storage project in Ge’ermu. HyperStrong also reports a 100 MW / 200 MWh grid-forming project in Malipo using a hybrid LFP plus vanadium flow architecture.

Integration capability
LFP storage integrates with solar, wind, EV charging infrastructure, SCADA, market dispatch tools, and higher-level EMS platforms. HyperStrong’s current product ecosystem also includes AI-based operational management and EMS functionality, which supports integrated optimization of storage fleets and hybrid plants.

Vanadium Redox Flow Battery Systems

Technology overview
Vanadium redox flow batteries are designed for long-duration and high-throughput energy storage, where cycle life, safety, and stable performance over decades matter more than maximum compactness. Because power and energy are decoupled, VRFB systems are particularly well suited to projects that require flexible discharge duration and intensive daily cycling.

Technical specifications
Current official Invinity Endurium data show a base string configuration of 300 kW DC and 1.2 MWh usable energy, configurable for 4 to 18 hour discharge duration. Published specifications include 0–100% depth of discharge, 75% DC round-trip efficiency at rated power, up to 80% DC round-trip efficiency at maximum efficiency, Modbus TCP/IP communications, IP54 protection, unlimited cycles over a 25+ year lifespan, and scalability to 100 MW+ systems.

Applications
VRFB technology is especially well suited to solar firming, long-duration renewable shifting, industrial load management, microgrids, resilience applications, and hybrid storage architectures where high cycling throughput and non-flammable chemistry are important design criteria.

Project examples
Published Invinity references include Energy Superhub Oxford in the UK, where a 2 MW / 5 MWh vanadium flow battery was hybridized with a 50 MW / 50 MWh lithium-ion system; Chappice Lake in Alberta, where an 8.4 MWh vanadium flow battery is paired with a 21 MWp solar array; Spencer Energy in Australia with an 8 MWh system; and the Viejas Casino & Resort microgrid in California with a 10 MWh installation.

Integration capability
VRFB systems integrate effectively with solar, wind, hybrid storage configurations, and EMS-led dispatch environments. Hybrid use with lithium-ion is already demonstrated in current market projects where fast-response and long-duration functions are deliberately separated across technologies.

Energy Management Systems (EMS)

Technology overview
EMS is the digital control layer that coordinates generation, storage, flexible loads, and grid interaction across a plant or multi-asset portfolio. EEH and SYE materials position EMS as a core component of the offering, and current DOE materials describe DERMS/EMS-type platforms as essential for secure monitoring, control, and optimization of distributed resources such as solar, storage, EVs, and hybrid systems.

Technical specifications
A modern EMS should support real-time monitoring, forecasting, state-of-charge management, dispatch optimization, event and alarm handling, interoperability with plant controls, and secure orchestration of DER assets. HyperStrong’s current AI platform adds one-stop intelligent management, AI-driven continuous optimization, real-time performance analysis, and predictive fault diagnosis as part of this operating model.

Applications
Typical applications include hybrid solar-plus-storage plants, C&I energy optimization, multi-asset portfolios, virtual plant-style aggregation, EV charging optimization, resilience systems, and source-grid-load-storage coordination. DOE’s FAST-DERMS program is explicitly aimed at architectures that aggregate PV, storage, EVs, flexible loads, and other DERs for wider grid services.

Project examples
Relevant market examples include DOE’s FAST-DERMS initiative and HyperStrong’s Malipo project, where an intelligent EMS is used to optimize task allocation between LFP and vanadium flow assets inside a grid-forming 100 MW / 200 MWh shared storage scheme.

Integration capability
EMS is the platform layer that links PV, BESS, VRFB, EV charging, SCADA, forecasting tools, and commercial optimization into one operational environment. EEH’s profile aligns this directly with commissioning readiness, optimization, and long-term asset performance improvement.

Pyrolysis Reactors for Waste-to-Energy Systems

Technology overview
Pyrolysis is a thermal decomposition process carried out in the absence of oxygen, producing gas, liquid fractions, and solid carbon-rich outputs from suitable feedstocks. International technical guidance from the Basel Convention and IEA Bioenergy describes pyrolysis as an oxygen-free thermal process typically associated with the production of oil, gas, and char-type fractions from waste or biomass streams.

Technical specifications
The Eco Garb reference material attached to this conversation describes a patented continuous 3R system for municipal solid waste, end-of-life tyres, biomass, plastics, and related waste streams. In that material, a representative module is described with 50,000 t/year input capacity for MSW, 6.6 MW electrical output, 12 MW thermal output, and a 3 t/h process configuration, together with measured emissions tables for key pollutants. These figures should be treated as reference data for the presented Eco Garb concept, not as universal pyrolysis values.

Applications
Typical applications include municipal waste treatment, tyre recovery, biomass conversion, selected plastics recovery, circular-economy projects, and industrial schemes where waste is revalued into energy carriers and industrial feedstocks. The attached Eco Garb material also aligns the technology with current EU waste hierarchy and landfill-reduction pressures.

Project examples
The attached Eco Garb presentation identifies a functioning 3R municipal waste thermal treatment plant in the Sozopol municipality / Ravadinovo area, with listed modules for separation, drying, 3R processing, gas storage, energy module, control center, and internal combustion engine. The same material states that the plant has the required licenses and permits for the activities described.

Integration capability
Pyrolysis projects require coordinated integration of feedstock logistics, preprocessing, thermal conversion, gas handling, power and heat utilization, emissions monitoring, and downstream offtake for recovered products. EEH’s positioning as an EPC and integration platform is relevant here because circular-economy systems depend on complete process integration rather than isolated equipment supply.

Atmospheric Water Generators

Technology overview
Atmospheric water generators extract moisture from ambient air and convert it into potable water through condensation, purification, and mineral balancing. EEH’s materials include atmospheric water generation in the core product portfolio, while current Watergen product information presents this technology as a deployable off-grid or infrastructure-light water solution.

Technical specifications
Current official Watergen GEN-M Pro specifications include water production up to 1,000 liters/day, integrated 130-liter tank, nominal power around 5.6 kW with peak up to 10 kW, 400 Wh/L in standard conditions, 3-phase power supply, and multi-stage purification with filtration, UV treatment, UF, and mineral balancing. Watergen’s published product page also notes operating thresholds beginning from approximately 18°C / 30% RH in the formal specification field, while higher-level marketing text on the same page mentions operation from 15°C / 20% RH; for technical proposals, the formal specification field is the safer basis.

Applications
AWG systems are suitable for remote sites, hospitality, schools, hospitals, construction sites, industrial compounds, public infrastructure, emergency response, and resilience projects where water security matters and conventional water infrastructure is limited or costly.

Project examples
Published Watergen examples include deployments in Bukhara, Samarkand, and Tashkent in Uzbekistan, a GEN-M school installation in Chile, and the Škoda AFRIQ case where Watergen Inside provides up to 20 liters/day inside a desert rally vehicle.

Integration capability
Atmospheric water generation integrates well with solar, battery storage, remote telemetry, and off-grid micro-infrastructure. For EEH, the strongest positioning is as part of an integrated water-energy resilience solution rather than as a standalone appliance sale.