Services

We perform comprehensive experimental testing of small-scale combustion sources up to 500 kW for both solid and liquid fuels. We offer the measurement of emission parameters using modern analyzers to determine the concentrations of CO, NOx, OGC, and particulate matter, including PM10, PM2.5, and PM1 fractions. Our services also include complete chemical analysis of flue gases and particles, including the determination of heavy metals and polycyclic aromatic hydrocarbons (PAHs). We also feature a calorimetric room for measuring the thermal output of equipment released into the surrounding environment.

We organize proficiency testing programs in the field of emission measurement and the determination of particulate matter in accordance with the requirements of ČSN EN ISO/IEC 17043. The program is implemented annually at the Energy Research Center's accredited test dust duct and is used to verify laboratory performance through interlaboratory comparisons. The testing facility enables the precise determination of reference values for mass flow and particulate matter concentration, and is also utilized for the calibration of dust meters, the verification of filter materials, and other experimental measurements in aerosol technology.

We offer the experimental determination of the thermokinetic properties of pulverized fuels using a drop-tube furnace facility, which allows for the simulation of combustion, gasification, and pyrolysis processes under defined temperature and atmospheric conditions.

We conduct detailed analyses of fine and ultrafine aerosol particles generated during combustion processes, including the determination of their size distribution, concentration, and physicochemical properties. For our measurements, we utilize a wide range of modern instrumentation for on-line and gravimetric aerosol characterization and sample preparation, enabling detailed particle evaluation across a broad range of sizes and concentrations.

We analyze the sorption properties of materials using the GASPRO HA system, which enables a detailed study of interactions between gases and solids at pressures up to 200 bar and within a temperature range of -170 to 370 °C. The equipment is used to precisely determine the amount of sorbed gas and characterize the sorption capacity of materials for a wide spectrum of gases, including CO₂, hydrogen, methane, and nitrogen. The infrastructure also includes supporting systems such as a hydrogen generator and a mass spectrometer, enabling detailed tracking of chemical and physical changes during sorption processes.

We provide the custom design, development, and optimization of electrostatic precipitators tailored to specific customer requirements for reducing emissions of particulate matter and other pollutants from combustion processes.

We introduce the world of solid fuels and combustion processes in a clear, engaging, and tailored way for every audience. We adapt our educational programs to the age and focus of listeners—ranging from playful "science through play" formats for primary school students to specialized, practically oriented lectures for professionals and manufacturers of combustion equipment.

We connect theory with practice and inspire a deeper understanding and innovation in the field of energy.

SMOKEMAN´s education show

Testing Laboratory No.: 1166.3, Accreditation: Czech Accreditation Institute (CAI), Certificate e.g.: No. 532/2025 (valid until August 10, 2028)

• Determination of ignition temperature for vapors
• Determination of the lower explosion limit for gases and vapors
• Determination of the upper explosion limit for gases and vapors
• Determination of the limiting oxygen concentration for gases and vapors
• Determination of maximum explosion pressure, K_G for gases and vapors
• Determination of the minimum ignition temperature of a dust layer
• Determination of the minimum ignition temperature of a dust cloud
• Determination of the minimum ignition energy of a dust cloud
• Determination of maximum explosion pressure, _K of a dust cloud
• Determination of the lower explosion limit of a dust cloud
• Determination of the limiting oxygen concentration of a dust cloud
  
  
• Contact: jan.skrinsky@vsb.cz

• Comprehensive experimental evaluation of synthesis processes (FTS, MeOH)
• Evaluation of solid catalysts (efficiency, selectivity)
• Long-term experiments (durability)
• Analyses of synthesis products (comprehensive qualitative and quantitative analyses)
• Analyses of solid catalysts (microscopic analyses, fractional content of substances, degradation rate, physical parameters)
• Environmental evaluation of the process and catalysts used
• Economic evaluation of the process (techno-economic study)
  
  
• Contact: jakub.cespiva@vsb.cz

• Experimental evaluation of the gasification process (200 kW / 10 kW)
• Chemical and physical analysis of the input fuel
• Fuel pre-treatment (drying, pelletization, blending, homogenization)
• Comprehensive qualitative and quantitative analysis of gasification products, including impurities (gaseous, liquid, solid)
• Activation of the solid fraction (biochar) and determination of sorption parameters
• Environmental evaluation of the process and fuels used
• Economic evaluation of the process (techno-economic study)
  
  
• Contact: jakub.cespiva@vsb.cz

• Elaboration of Life Cycle Assessment (LCA) studies for products, technologies, and services in the energy sector and related fields
• Identification of key environmental impacts throughout the life cycle (hotspot analysis)
• Calculation of the carbon footprint of products
• Support in the development of more sustainable products and the optimization of production processes
  
  
• Contact: david.kupka@vsb.cz

• Design and optimization of Organic Rankine Cycle (ORC) systems for waste heat utilization
• Experimental testing and validation of equipment (laboratory and operational conditions)
• Technical support for implementation and integration into existing energy systems
• Consultations and feasibility studies for specific applications (industry, energy sector, waste heat)
  
  
• Contact: david.kupka@vsb.cz

• Design and optimization of hydrogen separation technologies from process and synthesis gases
• Experimental testing of separation process efficiency
• Determination of the purity and quality of the recovered hydrogen
• Analysis of the operational parameters of separation units
• Design of membrane and hybrid separation systems
• Techno-economic evaluation of hydrogen separation
• Contact: jan.veres@vsb.cz

• Laboratory and pilot-scale verification of electrolyzer operation
• Evaluation of transport and electrochemical properties of membranes
• Evaluation of the efficiency and lifespan of membrane systems
• Diagnostics of membrane degradation mechanisms
• Optimization of operating conditions for electrolytic systems
  
  
• Contact: jan.veres@vsb.cz

• Elaboration of feasibility studies for hydrogen technologies and infrastructure
• Design of autonomous and off-grid hydrogen energy systems
• Techno-economic evaluation of hydrogen projects
• Safety analyses of hydrogen equipment and operations
• Assessment of fire and explosion risks
• Consulting activities in the preparation of research and investment projects
  
  
• Contact: jan.veres@vsb.cz

Measurement of concentrations of primary gaseous and solid pollutants, determination of source emission characteristics, and simultaneous monitoring of relevant technology operating parameters. Evaluation of results in relation to the device's operating regime and emission parameter requirements.

Ongoing monitoring of hydrogen quality and purity in technological and energy processes, including the identification of composition changes and unwanted impurities. Utilized in testing production, treatment, separation, and further hydrogen utilization.

Measurement and long-term monitoring of emission concentrations and associated operating variables in real time. Evaluation of emission timelines, operational stability, and technology response to changes in operating conditions.

Experimental evaluation of combustion progression, emission characteristics, energy parameters, and process stability using both conventional and alternative fuels. Assessment of the influence of fuel composition and properties on the operation of combustion equipment.

Assessment of existing flue gas cleaning systems, identification of emission reduction opportunities, and design of appropriate technological measures. Experimental verification and optimization of operating parameters for technologies limiting both gaseous and solid pollutants.

Measurement and evaluation of methane concentrations and emissions in technological processes and operations. Assessment of risks associated with the formation of explosive atmospheres and the identification of critical points and operating states from the perspective of fire and explosion safety.

Comprehensive assessment of energy and environmental aspects of operations, identification of significant energy, material, and emission flows, and the identification of potential for increasing energy efficiency and reducing environmental impacts.

Professional consultations, technical evaluations, interpretation of measurement and analysis results, and support in solving specific problems in the fields of energy, emissions, combustion processes, and environmental technologies.

Experimental verification of the functionality, efficiency, and operational properties of equipment and technological processes before their deployment on an industrial scale. Testing of various operating regimes and conditions aimed at obtaining data for optimization and further technology development.

Design, experimental verification, and validation of methodological procedures for measuring, testing, and evaluating technological processes and equipment. Preparation of methodologies usable for repeatable and standardized assessment in both laboratory and operational conditions.