History of TOTeMs
IFRF’s Topic Oriented Technical Meetings (TOTeMs) have been running since 1989, disseminating information to members, non-members and students on key topics for the combustion industry and beyond.
TOTeMs can be organised either by the IFRF itself or one of its national committees, ensuring the reach of the information is global for all of our stakeholders.
The events are characterised by keynote talks, paper and poster presentations, visits and dinners to help our community connect and share information.
Find out about all of our TOTeMs below.
TOTeM n° | Topic | Year | Location | Country |
---|---|---|---|---|
51 | Green hydrogen: advances in CFD simulations of industrial hydrogen flames (announced)[7] | 2024 | Calgary | Canada |
50 | Decarbonising combustion in hard-to-abate sectors[8] | 2023 | Piacenza (Politecnico di Milano) | Italy |
49 | Chemical energy carriers for long-term storage and long-distance transport of renewable energies[9] | 2023 | Mulhouse (LGRE) | France |
48 | Hydrogen for decarbonisation[10][11][12] (European Hydrogen Week 2022 side event[13]) | 2022 | Jouy-en-Josas (Air Liquide) | France |
47 | Additive manufacturing for combustion application[14] | 2020 | Paris (Fivesgroup) | France |
46 | Waste-to-energy – Status and perspective of technologies[15] | 2019 | Pisa | Italy |
45 | Gas turbines for future energy systems[16] | 2018 | Cardiff | UK |
44 | Gaseous fuels for industry and power generation: challenges and opportunities[17] | 2017 | Essen (GWI Gas- und Wärme-Institut) | Germany |
43 | Fired equipment safety and its associated instrumentation and control requirements[18] | 2016 | Sheffield | UK |
42 | Industrial heating: furnaces, process heaters, kilns, design of safe and environmentally efficient thermal equipment[19] | 2014 | IJmuiden | Netherlands |
41 | Optimisation of OXY/COAL/FGR systems – state of the art for scaling and modelling[20] | 2014 | Warsaw | Poland |
40 | Gasification, a versatile technology converting biomass to produce synfuels, heat and power[21] | 2015 | Delft | Netherlands |
39 | Oxy-coal Combustion[22] | 2013 | Pisa | Italy |
38 | Tar & sulphur sampling and analysis[23] | 2013 | Copenhagen | Denmark |
37 | Innovative and Advanced Coal Co-Firing Technologies[24] | 2012 | Warsaw | Poland |
36 | Industrial Flares[25] | 2010 | Hawaii | USA |
35 | Co-firing secondary fuels in power generation: from fuel characterization to full scale testing[26] | 2010 | Pisa | Italy |
34 | Gas Turbine Research: Fuels, Combustion, Heat Transfer and Emissions[27] | 2010 | Cardiff University and the Gas Turbine Research Centre, Port Talbot | UK |
33 | Challenges in Rotary Kiln Combustion Processes[28] | 2009 | Pisa | Italy |
32 | Efficient solid fuel utilisation: How to overcome ash related restrictions[29] | 2008 | Freising | Germany |
31 | Oxy-combustion technologies and applications[30] | 2008 | Pisa (Enel) | Italy |
30 | Computational Fluid Dynamics – Simulation of Combustion Processes[31] | 2007 | Waikoloa (HI) | USA |
29 | Characterisation of biofuels for co-combustion[32] | 2006 | Munich | Germany |
28 | Mercury, trace metals and fine particulates – Issues and Solutions[33] | 2008 | Salt Lake City (UT) | USA |
27 | Process heating in petroleum, petrochemical and chemical industries: Identifying trends and satisfying needs through leveraged external research[34] | 2003 | Birmingham | UK |
26 | CO2 control, capture, sequestration, storage and emissions trading[35] | 2003 | Birmingham | UK |
25 | Quest for Zero Emission in Industrial Furnaces -State of the Art and Future Development of High Temperature Air Combustion[36] | 2003 | Stockholm | Sweden |
24 | Challenges in the development of high efficiency combustion – The Excess Enthalpy Combustion Project[37] | 2003 | Velsen Noord | Netherlands |
23 | Efficiency and flexibility of energy use in the Iron and Steel industry: Minimise costs and CO2 emissions[38] | 2003 | Velsen Noord | Netherlands |
22 | Combustion Trends in Power Generation Industries[39] | 2002 | Linkebeek (Laborelec) | Belgium |
21 | Combustion Trends in Cement and Mineral Processing Industries,[39][40] | 2002 | Linkebeek (Laborelec) | Belgium |
20 | CFD for Combustion Engineering[41] | 2002 | Akersloot | Netherlands |
19 | Combustion oscillation and hum: Problems and opportunities[42] | 2002 | Akersloot | Netherlands |
18 | Intelligent Combustion Control[43] | 2000 | Cernay-la-Ville | France |
17 | The Use of Oxygen for Industrial Combustion[44] | 2000 | Cernay-la-Ville | France |
16 | Toxic Metals and Fine Particulates from Combustion Processes[45] | 2000 | Lyngby | Denmark |
15 | Ash and Deposit Formation in Utility Boilers[46] | 2000 | Lyngby | Denmark |
14 | Bio-fuels – Fuel preparation, Combustion Technologies and Scope for Utilisation[47] | 1999 | Växjö | Sweden |
13 | High Temperature Combustion Research for Industry – Results from the IFRF Research Station[48] | 1999 | IJmuiden | Netherlands |
12 | Application of Mathematical Modelling of full Scale Industrial Processes: Status and need for Sub-Models[49] | 1999 | Guernsey | UK |
11 | Liquid Fuels: Heavy oils wastes and slurries[50] | 1995 | Biaritz | France |
10 | Advanced Power Generation[51] | 1994 | Veldhoven | Netherlands |
9 | IFRF triennial planning 1995-1997 and future flame research[52] | 1994 | Haarlem | Netherlands |
8 | High temperature combustion – High air preheat/oxygen enrichment[53] | 1993 | Loughborough | UK |
7 | Scaling and mathematical modeling of combustion systems[54] | 1993 | Chicago (GRI) | USA |
6 | Measurement and control diagnostics[55] | 1992 | Karlsruhe | Germany |
5 | Waste incineration technology[56] | 1991 | Bari | Italy |
4 | IFRF Triennial Planning 1992-94[57] | 1991 | Haarlem | Netherlands |
3 | In-furnace NOx reduction techniques[58] | 1990 | Leeds | UK |
2 | Fuel combustion characterisation[59] | 1990 | Rueil Malmaison (IFP) | France |
1 | Capabilities and limitations of mathematical models of flares[60] | 1989 | Amsterdam | Netherland |