INHALT

Commission Implementing Decision (EU) 2017/1442 of 31 July 2017 establishing best available techniques (BAT) conclusions, under Directive 2010/75/EU of the European Parliament and of the Council, for large combustion plants (notified under document C(2017) 5225) (Text with EEA relevance. )

COMMISSION IMPLEMENTING DECISION (EU) 2017/1442
of 31 July 2017
establishing best available techniques (BAT) conclusions, under Directive 2010/75/EU of the European Parliament and of the Council, for large combustion plants
(notified under document C(2017) 5225)
(Text with EEA relevance)
Article 1
Article 2
ANNEX
BEST AVAILABLE TECHNIQUES (BAT) CONCLUSIONS
SCOPE
DEFINITIONS
ACRONYMS
GENERAL CONSIDERATIONS
Best Available Techniques
Emission levels associated with the best available techniques (BAT-AELs)
BAT-AELs for emissions to air
BAT-AELs for emissions to water
Energy efficiency levels associated with the best available techniques (BAT-AEELs)
Categorisation of combustion plants/units according to their total rated thermal input
1. GENERAL BAT CONCLUSIONS
1.1.
Environmental management systems
Applicability
1.2.
Monitoring
1.3.
General environmental and combustion performance
BAT-associated emission levels
Description
Description
1.4.
Energy efficiency
1.5.
Water usage and emissions to water
Description
Applicability
1.6.
Waste management
1.7.
Noise emissions
2. BAT CONCLUSIONS FOR THE COMBUSTION OF SOLID FUELS
2.1.
BAT conclusions for the combustion of coal and/or lignite
2.1.1.
General environmental performance
2.1.2.
Energy efficiency
2.1.3.
NO
X
, N
2
O and CO emissions to air
2.1.4.
SO
X
, HCl and HF emissions to air
2.1.5.
Dust and particulate-bound metal emissions to air
2.1.6.
Mercury emissions to air
2.2.
BAT conclusions for the combustion of solid biomass and/or peat
2.2.1.
Energy efficiency
2.2.2.
NO
X
, N
2
O and CO emissions to air
2.2.3.
SO
X,
HCl and HF emissions to air
2.2.4.
Dust and particulate-bound metal emissions to air
2.2.5.
Mercury emissions to air
3. BAT CONCLUSIONS FOR THE COMBUSTION OF LIQUID FUELS
3.1.
HFO- and/or gas-oil-fired boilers
3.1.1.
Energy efficiency
3.1.2.
NO
X
and CO emissions to air
3.1.3.
SO
X
, HCl and HF emissions to air
3.1.4.
Dust and particulate-bound metal emissions to air
3.2.
HFO- and/or gas-oil-fired engines
3.2.1.
Energy efficiency
3.2.2.
NO
X
, CO and volatile organic compound emissions to air
3.2.3.
SO
X
, HCl and HF emissions to air
3.2.4.
Dust and particulate-bound metal emissions to air
3.3.
Gas-oil-fired gas turbines
3.3.1.
Energy efficiency
3.3.2.
NO
X
and CO emissions to air
3.3.3.
SO
X
and dust emissions to air
4. BAT CONCLUSIONS FOR THE COMBUSTION OF GASEOUS FUELS
4.1.
BAT conclusions for the combustion of natural gas
4.1.1.
Energy efficiency
4.1.2.
NO
X
, CO, NMVOC and CH
4
emissions to air
Description
Description
4.2.
BAT conclusions for the combustion of iron and steel process gases
4.2.1.
Energy efficiency
4.2.2.
NO
X
and CO emissions to air
4.2.3.
SO
X
emissions to air
4.2.4.
Dust emissions to air
4.3.
BAT conclusions for the combustion of gaseous and/or liquid fuels on offshore platforms
5. BAT CONCLUSIONS FOR MULTI-FUEL-FIRED PLANTS
5.1.
BAT conclusions for the combustion of process fuels from the chemical industry
5.1.1.
General environmental performance
5.1.2.
Energy efficiency
5.1.3.
NO
X
and CO emissions to air
5.1.4.
SO
X
, HCl and HF emissions to air
5.1.5.
Dust and particulate-bound metal emissions to air
5.1.6.
Emissions of volatile organic compounds and polychlorinated dibenzo-dioxins and -furans to air
6. BAT CONCLUSIONS FOR THE CO-INCINERATION OF WASTE
6.1.1.
General environmental performance
6.1.2.
Energy efficiency
6.1.3.
NO
X
and CO emissions to air
6.1.4.
SO
X
, HCl and HF emissions to air
6.1.5.
Dust and particulate-bound metal emissions to air
6.1.6.
Mercury emissions to air
6.1.7.
Emissions of volatile organic compounds and polychlorinated dibenzo-dioxins and -furans to air
7. BAT CONCLUSIONS FOR GASIFICATION
7.1.1.
Energy efficiency
7.1.2.
NO
X
and CO emissions to air
7.1.3.
SO
X
emissions to air
7.1.4.
Dust, particulate-bound metal, ammonia and halogen emissions to air
8. DESCRIPTION OF TECHNIQUES
8.1.
General techniques
8.2.
Techniques to increase energy efficiency
8.3.
Techniques to reduce emissions of NO
X
and/or CO to air
8.4.
Techniques to reduce emissions of SO
X
, HCl and/or HF to air
8.5.
Techniques to reduce emissions to air of dust, metals including mercury, and/or PCDD/F
8.6.
Techniques to reduce emissions to water