Emission standard

from Wikipedia, the free encyclopedia
Extract from the registration certificate part I of a car. In field 14 you will find the pollutant key "EURO 4".

An exhaust emission standard (e.g. Euro standard ) defines limit values for the emission of air pollutants for vehicles and ships .

In the EU, limit values ​​apply to carbon monoxide (CO), nitrogen oxides (NO x ), hydrocarbons (C n H m ), particle mass (PM) and particle number (PN). The limit values differ both according to the type of engine ( gasoline or diesel engine ) and the type of vehicle ( cars , trucks , motorcycles or mopeds ) and are becoming increasingly stringent.

The pollutant values ​​are measured during the type test in the driving cycle . In the case of trucks and buses, from the Euro 6 emissions standard, the values ​​are also measured during real driving (emissions in practical driving mode "RDE") . For cars , this is only the case from the Euro 6d-TEMP emission standard. The vehicle manufacturer must guarantee compliance with the limit values ​​for a specified period of time and mileage. Depending on the vehicle type, an on-board diagnosis (OBD) is required from a certain year of construction to continuously check the functioning of all emission-related systems.

The emissions standards in the EU do not set any limit values ​​for the emission of the greenhouse gas carbon dioxide (CO 2 ). Regulations for this are set out in guidelines on fleet consumption .

history

In California , due to the susceptibility of the city of Los Angeles to summer smog , the first emission limits for motor vehicles were set as early as the 1960s. For this purpose, the " California Air Resources Board " - CARB was founded in 1967 . In addition, there is now the federal Environmental Protection Agency (EPA).

The first uniform emissions regulations for cars in the European Community (EC) came into force in 1970 with Directive 70/220 / EEC. The emissions of carbon monoxide and hydrocarbons were limited. These limit values ​​were tightened in 1974 by Directive 74/290 / EEC. In 1977, with Directive 77/102 / EEC, nitrogen oxides were introduced as exhaust gas constituents to be additionally limited. Limit values ​​for particles ( soot ) from diesel engines were introduced in 1988 with Directive 88/436 / EEC.

For trucks and buses, limit values ​​for exhaust gas constituents were set for the first time in Europe in 1988 with Directive 88/77 / EEC. For motorbikes and mopeds there have been exhaust emission limits established across Europe by Directive 97/24 / EC since 1997.

European Union

European Union flag

Regulation (EC) No. 715/2007

Title: Regulation (EC) No. 715/2007 of the European Parliament and of the Council of June 20, 2007 on the type approval of motor vehicles with regard to emissions from light passenger cars and commercial vehicles
Short title: Euro 5 and Euro 6
Scope: EEA
Legal matter: Traffic law , environmental law
Basis: EGV , especially Art. 95
Procedure overview: European Commission
European Parliament
IPEX Wiki
To be used from: July 2, 2007
Art. 10 Paragraph 1 and Art. 12
January 3, 2009
Remaining Ordinance
Last change by: Regulation (EU) 2018/858
Effective date of the
last change:
January 7, 2019
Reference: OJ L 171 of June 29, 2007, pp. 1-16
Full text Consolidated version (not official)
basic version
Regulation has entered into force and is applicable.
Please note the information on the current version of legal acts of the European Union !

In the EU, Directive 2007/46 / EC defines a common legal framework for the type approval of cars, trucks, buses and trailers (with the exception of lof). Directive 2007/46 / EC will be replaced by Regulation (EU) 2018/858 on September 1, 2020 . The emission limit values for these vehicles are specified in Regulation 715/2007 / EC. It applies with the supplementary regulations (EG) 692/2008, (EG) 595/2009, (EU) 566/2011, (EU) 459/2012, (EU) 427/2016 ("RDE1"), (EU) 646 / 2016 ("RDE2"), (EU) 2017/1151, (EU) 2017/1154 ("RDE3") and (EU) 2018/1832 ("RDE4").

Regulation (EU) No. 168/2013 lays down the legal framework for the type approval of two and three-wheel vehicles.

While the exhaust gas limit values ​​for cars, motorbikes and mopeds are route-related (pollutants per kilometer), for trucks and buses the exhaust gas limit values ​​are based on the work done by the engine (pollutants per kilowatt hour ). In the case of cars, the limit values ​​are determined using a roller dynamometer test, whereas in the case of trucks and buses, the tests are carried out on an engine test bench .

When measuring emissions on cars, up to and including the Euro 2 emissions standard, the engines were idled for 40 seconds before the emissions measurement was started. With the Euro 3 emissions standard, this flow was no longer necessary. Since the catalytic converter is still cold when the engine is started and therefore cannot convert any pollutants, the first few seconds after starting the engine are associated with particularly high pollutant emissions. This also explains why the Euro 3 emissions standard allows higher carbon monoxide emissions than Euro 2.

In addition to the European standards, there are also the D standards for passenger cars, which only exist in Germany and represent a national advance replacement. The limit values ​​of D3 and Euro 3 or D4 and Euro 4 are roughly comparable (see tables). However, the exhaust gas measurement at D3 was still carried out 40 seconds ahead. When it came to new registrations, D3 and D4 were replaced by Euro 3 from 2001 and Euro 4 from 2005.

All values ​​as mass emissions in grams per kilometer (g / km), number of particles PN in particles per kilometer (1 / km):

  • HC = hydrocarbons (English: hydrocarbons )
  • HC + NO x = sum of hydrocarbons and nitrogen oxides
  • NO x = nitrogen oxides
  • CO = carbon monoxide
  • NMHC = non- methane hydrocarbons
  • PM = particle mass (fine) dust (English: particulate matter )
  • PN = particle number (English: particle number )
Emission Standards-Otto.jpg
Emission Standards-Diesel.jpg


Development of the limit values ​​for passenger cars with gasoline engines
Development of the limit values ​​for cars with diesel engines

Car

For petrol cars, the EU regulation between different engines with manifold injection (indirect injection, English: port fuel injection [PFI]) and engines with direct fuel injection (English: gasoline direct injection [GDI]). For vehicles with intake manifold injection, there are no limit values ​​for the particle mass and the number of particles, as they usually only have a low level of fine dust emissions. In measurements, however, very high values ​​were found for individual engines with intake manifold injection.

Emission standards for vehicle classes M, N1, Group I (status: 21st Announcement of the Federal Motor Transport Authority):

standard Letter Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Last admission date for first admission Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

( HC + NO x )

mg / km

PM

mg / km

PN

1 / km

petrol
Euro 1 July 1, 1992 Jan. 1, 1993 Dec 31, 1996 NEDC - - 2,720 - - 970 - -
Euro 2 Jan. 1, 1996 Jan. 1, 1997 Dec. 31, 2000 - - 2,200 - - 500 - -
Euro 3 Jan. 1, 2000 Jan. 1, 2001 Dec 31, 2005 - - 2,300 200 150 - - -
D3 - a - a - - 1,500 140 170 - - -
Euro 4 Jan. 1, 2005 Jan. 1, 2006 Dec 31, 2010 - - 1,000 100 80 - - -
D4 - a - a - - 700 70 80 - - -
Euro 5a Sept. 1, 2009 Jan. 1, 2011 Dec 31, 2012 - - 1,000 100 (68) 60 - 5 c -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 31 Aug 2015 - - 1,000 100 (68) 60 - 4.5 c -
Euro 6b Sept. 1, 2014 Sept. 1, 2015 31 Aug 2018 - - 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6c ZD - b - b 31 Aug 2018 - - 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6c AD - b Sept. 1, 2018 31 Aug 2019 WLTP - - 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6d-TEMP AG Sept. 1, 2017 - b 31 Aug 2019 2.1 1.5 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6d-TEMP-EVAP BG - b - b 31 Aug 2019
Euro 6d-TEMP-ISC CG Jan. 1, 2019 - b 31 Aug 2019
Euro 6d-TEMP-EVAP-ISC DG Sept. 1, 2019 Sept. 1, 2019 Dec 31, 2020
Euro 6d AJ - b - b 31 Aug 2019
Euro 6d-ISC AT THE - b - b Dec 31, 2020
Euro 6d-ISC-FCM AP Jan. 1, 2020 Jan. 1, 2021 1.43 1.5 1,000 100 (68) 60 - 4.5 c 6the11 c
diesel
Euro 1 July 1, 1992 Jan. 1, 1993 Dec 31, 1996 NEDC - - 2,720 - - 970 140 -
Euro 2 Jan. 1, 1996 Jan. 1, 1997 Dec. 31, 2000 - - 1,000 - - 700 80 -
Euro 3 Jan. 1, 2000 Jan. 1, 2001 Dec 31, 2005 - - 660 - 500 560 50 -
D3 - a - a - - ? - ? ? ? -
Euro 4 Jan. 1, 2005 Jan. 1, 2006 Dec 31, 2010 - - 500 - 250 300 25th -
D4 - a - a - - ? - ? ? ? -
Euro 5a Sept. 1, 2009 Jan. 1, 2011 Dec 31, 2012 - - 500 - 180 230 5 -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 31 Aug 2015 - - 500 - 180 230 4.5 6the11
Euro 6b Sept. 1, 2014 Sept. 1, 2015 31 Aug 2018 - - 500 - 80 170 4.5 6the11
Euro 6c ZD - b - b 31 Aug 2018 - - 500 - 80 170 4.5 6the11
Euro 6c AD - b Sept. 1, 2018 31 Aug 2019 WLTP - - 500 - 80 170 4.5 6the11
Euro 6d-TEMP AG Sept. 1, 2017 - b 31 Aug 2019 2.1 1.5 500 - 80 170 4.5 6the11
Euro 6d-TEMP-EVAP BG - b - b 31 Aug 2019
Euro 6d-TEMP-ISC CG Jan. 1, 2019 - b 31 Aug 2019
Euro 6d-TEMP-EVAP-ISC DG Sept. 1, 2019 Sept. 1, 2019 Dec 31, 2020
Euro 6d AJ - b - b 31 Aug 2019 1.43 1.5 500 - 80 170 4.5 6the11
Euro 6d-ISC AT THE - b - b Dec 31, 2020
Euro 6d-ISC-FCM AP Jan. 1, 2020 Jan. 1, 2021
a The German standards D3 and D4 have never been made mandatory. It was a voluntary classification.

b Voluntary classification

c Only applies to engines with direct injection . Until August 31, 2018, the limit was 6e12 applicable.

Light commercial vehicles

Permissible total weight ≤1305 kg (category N 1 class I)

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

( HC + NO x )

mg / km

PM

mg / km

PN

1 / km

petrol
Euro 1 July 1, 1992 Jan. 1, 1993 NEDC - - 2,720 - - 970 - -
Euro 2 Jan. 1, 1996 Jan. 1, 1997 - - 2,200 - - 500 - -
Euro 3 Jan. 1, 2000 Jan. 1, 2001 - - 2,300 200 150 - - -
Euro 4 Jan. 1, 2005 Jan. 1, 2006 - - 1,000 100 80 - - -
Euro 5a Sept. 1, 2009 Jan. 1, 2011 - - 1,000 100 (68) 60 - 5 c -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 1,000 100 (68) 60 - 4.5 c -
Euro 6b Sept. 1, 2014 Sept. 1, 2015 - - 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6c - Sept. 1, 2018 WLTP - - 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6d temp Sept. 1, 2017 Sept. 1, 2019 2.1 1.5 1,000 100 (68) 60 - 4.5 c 6the11 c
Euro 6d Jan. 1, 2020 Jan. 1, 2021 1.5 1.5 1,000 100 (68) 60 - 4.5 c 6the11 c
diesel
Euro 1 July 1, 1992 Jan. 1, 1993 NEDC - - 2,720 - - 970 140 -
Euro 2 Jan. 1, 1996 Jan. 1, 1997 - - 1,000 - - 700 80 -
Euro 3 Jan. 1, 2000 Jan. 1, 2001 - - 660 - 500 560 50 -
Euro 4 Jan. 1, 2005 Jan. 1, 2006 - - 500 - 250 300 25th -
Euro 5a Sept. 1, 2009 Jan. 1, 2011 - - 500 - 180 230 5 -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 500 - 180 230 4.5 6the11
Euro 6b Sept. 1, 2014 Sept. 1, 2015 - - 500 - 80 170 4.5 6the11
Euro 6c - Sept. 1, 2018 WLTP - - 500 - 80 170 4.5 6the11
Euro 6d temp Sept. 1, 2017 Sept. 1, 2019 2.1 1.5 500 - 80 170 4.5 6the11
Euro 6d Jan. 1, 2020 Jan. 1, 2021 1.5 1.5 500 - 80 170 4.5 6the11
c Only applies to engines with direct injection

Permissible total weight = 1305–1760 kg (category N 1 class II)

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

( HC + NO x )

mg / km

PM

mg / km

PN

1 / km

petrol
Euro 1 Oct 1, 1993 Oct 1, 1994 NEDC - - 5,170 - - - - -
Euro 2 Jan. 1, 1998 Oct 1, 1998 - - 4,000 - - - - -
Euro 3 Jan. 1, 2001 Jan. 1, 2002 - - 4,170 250 180 - - -
Euro 4 Jan. 1, 2006 Jan. 1, 2007 - - 1,810 130 100 - - -
Euro 5a Sept. 1, 2010 Jan. 1, 2012 - - 1,810 130 (90) 75 - 5 c -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 1,810 130 (90) 75 - 4.5 c -
Euro 6b Sept. 1, 2015 Sept. 1, 2016 - - 1,810 130 (90) 75 - 4.5 c 6the11 c
Euro 6c - Sept. 1, 2019 WLTP - - 1,810 130 (90) 75 - 4.5 c 6the11 c
Euro 6d temp Sept. 1, 2018 Sept. 1, 2020 2.1 1.5 1,810 130 (90) 75 - 4.5 c 6the11 c
Euro 6d Jan. 1, 2021 Jan. 1, 2022 1.5 1.5 1,810 130 (90) 75 - 4.5 c 6the11 c
diesel
Euro 1 Oct 1, 1993 Oct 1, 1994 NEDC - - 5,170 - - 1,400 190 -
Euro 2 Jan. 1, 1998 Oct 1, 1998 - - 1250 - - 1,000 120 -
Euro 3 Jan. 1, 2001 Jan. 1, 2002 - - 800 - 650 720 70 -
Euro 4 Jan. 1, 2006 Jan. 1, 2007 - - 630 - 330 390 40 -
Euro 5a Sept. 1, 2010 Jan. 1, 2012 - - 630 - 235 295 5 -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 630 - 235 295 4.5 6the11
Euro 6b Sept. 1, 2015 Sept. 1, 2016 - - 630 - 105 195 4.5 6the11
Euro 6c - Sept. 1, 2019 WLTP - - 630 - 105 195 4.5 6the11
Euro 6d temp Sept. 1, 2018 Sept. 1, 2020 2.1 1.5 630 - 105 195 4.5 6the11
Euro 6d Jan. 1, 2021 Jan. 1, 2022 1.5 1.5 630 - 105 195 4.5 6the11
c Only applies to engines with direct injection

Permissible total weight> 1760 kg (category N 1 class III & N 2 )

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

( HC + NO x )

mg / km

PM

mg / km

PN

1 / km

petrol
Euro 1 Oct 1, 1993 Oct 1, 1994 NEDC - - 6,900 - - 1,700 - -
Euro 2 Jan. 1, 1998 Oct 1, 1998 - - 5,000 - - 700 - -
Euro 3 Jan. 1, 2001 Jan. 1, 2002 - - 5,220 290 210 - - -
Euro 4 Jan. 1, 2006 Jan. 1, 2007 - - 2,270 160 110 - - -
Euro 5a Sept. 1, 2010 Jan. 1, 2012 - - 2,270 160 (108) 82 - 5 c -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 2,270 160 (108) 82 - 4.5 c -
Euro 6b Sept. 1, 2015 Sept. 1, 2016 - - 2,270 160 (108) 82 - 4.5 c 6the11 c
Euro 6c - Sept. 1, 2019 WLTP - - 2,270 160 (108) 82 - 4.5 c 6the11 c
Euro 6d temp Sept. 1, 2018 Sept. 1, 2020 2.1 1.5 2,270 160 (108) 82 - 4.5 c 6the11 c
Euro 6d Jan. 1, 2021 Jan. 1, 2022 1.5 1.5 2,270 160 (108) 82 - 4.5 c 6the11 c
diesel
Euro 1 Oct 1, 1993 Oct 1, 1994 NEDC - - 6,900 - - 1,700 250 -
Euro 2 Jan. 1, 1998 Oct 1, 1998 - - 1,500 - - 1,200 170 -
Euro 3 Jan. 1, 2001 Jan. 1, 2002 - - 950 - 780 860 100 -
Euro 4 Jan. 1, 2006 Jan. 1, 2007 - - 740 - 390 460 60 -
Euro 5a Sept. 1, 2010 Jan. 1, 2012 - - 740 - 280 350 5 -
Euro 5b Sept. 1, 2011 Jan. 1, 2013 - - 740 - 280 350 4.5 6the11
Euro 6b Sept. 1, 2015 Sept. 1, 2016 - - 740 - 125 215 4.5 6the11
Euro 6c - Sept. 1, 2019 WLTP - - 740 - 125 215 4.5 6the11
Euro 6d temp Sept. 1, 2018 Sept. 1, 2020 2.1 1.5 740 - 125 215 4.5 6the11
Euro 6d Jan. 1, 2021 Jan. 1, 2022 1.5 1.5 740 - 125 215 4.5 6the11
c Only applies to engines with direct injection

Light motorcycle and motorcycle

With the Euro 5 emissions standard, the same limits apply to all vehicles of the EC vehicle class L . This includes all two-wheeled and three-wheeled motor vehicles as well as light four-wheeled motor vehicles.

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

PM

mg / km

PN

mg / km

petrol
Euro 1 1998 June 17, 1999 ECE R40 - - 8,000 / 13,000 d 4,000 / 3,000 d 100/300 d - -
Euro 2 Apr 1, 2003 Jul 1, 2004 - - 5,500 1,200 / 1,000 e 300 - -
Euro 3 Jan. 1, 2006 Jan. 1, 2007 - - 2,000 800/300 e 150 - -
Euro 4 Jan. 1, 2016 Jan. 1, 2017 WMTC - - 1,140 170/380 f 90/70 f - -
5 euro Jan. 1, 2020 Jan. 1, 2021 - - 1,000 100 60 4.5 c -
diesel
Euro 1 1998 June 17, 1999 ECE R40 - - 8,000 / 13,000 d 4,000 / 3,000 d 100/300 d - -
Euro 2 Apr 1, 2003 Jul 1, 2004 - - 5,500 1,200 / 1,000 e 300 - -
Euro 3 Jan. 1, 2006 Jan. 1, 2007 - - 2,000 800/300 e 150 - -
Euro 4 Jan. 1, 2016 Jan. 1, 2017 WMTC - - 1,000 100 300 80 -
5 euro Jan. 1, 2020 Jan. 1, 2021 - - 500 100 90 4.5 -
c Only applies to engines with direct injection

d four-stroke

e from 150³

f V-max <130 km / h

Moped

In mopeds emission standard Euro void 3. With the Euro 5 emissions standard, the same limits apply to all vehicles of the EC vehicle class L . This includes all two-wheeled and three-wheeled motor vehicles as well as light four-wheeled motor vehicles.

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

mg / km

HC (NMHC)

mg / km

NO x

mg / km

( HC + NO x )

mg / km

PM

mg / km

PN

mg / km

petrol
Euro 1 Jun 17, 1999 ? ECE R47 - - 6,000 - - 3,000 - -
Euro 2 Jun 17, 2002 ? - - 1,000 - - 1,200 - -
Euro 4 Jan. 1, 2017 Jan. 1, 2018 - - 1,000 630 170 - - -
5 euro Jan. 1, 2020 Jan. 1, 2021 WMTC - - 1,000 100 60 - 4.5 b -
diesel
Euro 1 Jun 17, 1999 ? ECE R47 - - 6,000 - - 3,000 - -
Euro 2 Jun 17, 2002 ? - - 1,000 - - 1,200 - -
Euro 4 Jan. 1, 2017 Jan. 1, 2018 - - 1,000 630 170 - - -
5 euro Jan. 1, 2020 Jan. 1, 2021 WMTC - - 500 100 90 - 4.5 -
b Only applies to engines with direct injection

Trucks and buses from 3.5 t

The introduction of the Euro VI emissions standard meant a significant tightening. For the first time, the exhaust gases are not only tested in the laboratory, but also in real traffic ( RDE ) using PEMS . According to the current state of technology (2017), compliance with the limit values ​​for Euro VI can only be achieved with a combination of an oxidation catalytic converter , a closed diesel particulate filter and a system for exhaust gas aftertreatment using selective catalytic reduction (SCR).

The test cycle abbreviations stand for ESC (European Stationary Cycle), ETC (European Transient Cycle), WHSC (World Harmonized Stationary Cycle), WHTC (World Harmonized Transient Cycle) and ELR (European Load Response Test).

standard Date of introduction

new types
( type approval )

Date of introduction

New vehicles
( first registration )

Driving cycle /

Test procedure

CF factor

RDE (NOx)

CF factor

RDE (PN)

CO

[mg / kWh]

HC

[mg / kWh]

NMHC

[mg / kWh]

methane

[mg / kWh]

NO x

[mg / kWh]

NH 3

[ppm]

PM

[mg / kWh]

PN

[# / kWh]

Cloudiness

[m −1 ]

Petrol and diesel
Euro l July 1, 1992 Oct 1, 1993 ESC R-49 - - 4,500 1,100 - - 8,000 - 612/360 f - -
Euro ll Oct. 1, 1995 Oct. 1, 1996 - - 4,000 1,100 - - 7,000 - 250/150 g - -
Euro lll Oct 1, 2000 Oct. 1, 2001 ESC & ELR / ETC - - 2,100 / 5,450 660 / 2,380 - / 780 - / 1,600 5,000 / 5,000 - / - 100/160 - / - 0.8 / -
Euro IV Oct 1, 2005 Oct 1, 2006 - - 1,500 / 4,000 460/1650 - / 550 - / 1,100 3,500 / 3,500 - / - 20/30 - / - 0.5 / -
Euro V Oct 1, 2008 Oct. 1, 2009 - - 1,500 / 4,000 460/1650 - / 550 - / 1,100 2,000 / 2,000 - / - 20/30 - / - 0.5 / -
Euro Vl Dec 31, 2012 Dec 31, 2013 WHSC / WHTC 1.5 1.5 1,500 / 4,000 130/160 - / - - / - 400/460 10/10 10/10 8 · 10 11/6 · 10 11 - / -
f over 85 kW

g from type approval date October 1, 1998

Mobile machines and devices (NRMM)

The term mobile machinery and equipment ( Non-Road-Mobile-Machinery - NRMM) is a term used in European emission standards to control emissions from engines that are not primarily used on public roads. This definition includes both off-road vehicles and work machines, as well as rail vehicles and domestic shipping.

European standards for off-road diesel engines include progressively stringent levels known as Level IV standards. Stage I / II was part of the 1997 Directive (Directive 97/68 / EC). It was implemented in two stages, stage I being implemented in 1999 and stage II between 2001 and 2004. In 2004 the European Parliament passed the Stage III / IV standards. The Stage III standards were further broken down into Stage III A and III B, which were gradually introduced between 2006 and 2013. Stage IV standards will be enforced from 2014. The Stage V standards (Regulation (EU) 2016/1628) will be introduced gradually from 2018 and fully enforced from 2021.

Categories

  • Category NRG engines over 560 kW used in generating sets;
  • Category NRSh-SI motors below 19 kW exclusively for use in hand-held machines;
  • Motors of the NRS-SI category below 56 kW, which are not included in the NRSh category;
  • Category IWP motors over 19 kW that are used for direct or indirect propulsion of inland vessels;
  • Category IWA auxiliary engines over 19 kW for use in inland vessels;
  • Category RLL engines for driving railway locomotives;
  • Category RLR engines for powering railcars;
  • Category SMB-SI motors for use in snowmobiles;
  • Motors of the ATS-SI category, which are used in off-road and auxiliary vehicles
  • Category NRE motors for mobile machines and devices that do not fall under any of the items listed below;

Limit values

Limit values ​​for mobile work machines without domestic shipping
category Type Performance p introduction CO HC NOx PM PN
kW g / kWh 1 / kWh
NRE-v / c-1 diesel p <8 2019 8.00 7.50 a, c 0.40 b -
NRE-v / c-2 diesel 8 ≤ p <19 2019 6.60 7.50 a, c 0.40 -
NRE-v / c-3 diesel 19 ≤ p <37 2019 5.00 4.70 a, c 0.015 1e12
NRE-v / c-4 diesel 37 ≤ p <56 2019 5.00 4.70 a, c 0.015 1e12
NRE-v / c-5 All 56 ≤ p <130 2020 5.00 0.19 c 0.40 0.015 1e12
NRE-v / c-6 All 130 ≤ p ≤ 560 2019 3.50 0.19 c 0.40 0.015 1e12
NRE-v / c-7 All p> 560 2019 3.50 0.19 d 3.50 0.045 -
a HC + NOx
b 0.60 hand-startable, air-cooled direct-injection engines
c A = 1.10 for gas engines

d A = 6.00 for gas engines

For engine categories for which an A-factor has been defined, the HC limit value given in the table for fully and partially throttle-operated engines is replaced by the one calculated from the formula:

HC = 0.19 + (1.5 × A × GEV)

where the GEV is the average gas-energy ratio over the corresponding cycle. If both a stationary and a transient test cycle are used, the GEV is to be determined from the transient hot start test cycle. If the calculated HC limit exceeds 0.19 + A, the limit for HC is set to 0.19 + A.

Limit values ​​for domestic shipping according to Stage IIIA
Category Stroke volume Vh per cylinder introduction CO HC + NOx PM
dm³ g / kWh
V1: 1 Vh ≤ 0.9, p> 37 kW 2007 5.0 7.5 0.40
V1: 2 0.9 <Vh ≤ 1.2 5.0 7.2 0.30
V1: 3 1.2 <Vh ≤ 2.5 5.0 7.2 0.20
V1: 4 2.5 <Vh ≤ 5 2009 5.0 7.2 0.20
V2: 1 5 <Vh ≤ 15 5.0 7.8 0.27
V2: 2 15 <Vh ≤ 20, p ≤ 3300 kW 5.0 8.7 0.50
V2: 3 15 <Vh ≤ 20, p> 3300 kW 5.0 9.8 0.50
V2: 4 20 <Vh ≤ 25 5.0 9.8 0.50
V2: 5 25 <Vh ≤ 30 5.0 11.0 0.50
Limit values ​​for domestic shipping according to Stage V for propulsion (Cat.IWP) and auxiliary units (IWA)
category Performance p introduction CO HC a NOx PM PN
kW g / kWh 1 / kWh
IWP / IWA-v / c-1 19 ≤ p <75 2019 5.00 4.70 b 0.30 -
IWP / IWA-v / c-2 75 ≤ p <130 2019 5.00 5.40 b 0.14 -
IWP / IWA-v / c-3 130 ≤ p <300 2019 3.50 1.00 2.10 0.10 -
IWP / IWA-v / c-4 p ≥ 300 2020 3.50 0.19 1.80 0.015 1e12
a A = 6.00 for gas engines

b HC + NOx

Limit values ​​for engines in locomotives and railcars (RLL and RLR)

Stage V emission limits will apply from 2021 for engines in locomotives (RLL) and railcars (RLR), regardless of the output and combustion concept. Auxiliary engines that are installed in locomotives and railcars are grouped into the NRE or NRS categories.

category Performance p introduction CO HC a NOx PM PN
kW g / kWh 1 / kWh
RLL-v / c-1 (locomotives) p> 0 2021 3.50 4.00 b 0.025 -
RLR-v / c-1 (railcar) p> 0 2021 3.50 0.19 2.00 0.015 1e12
a A = 6.00 for gas engines

b HC + NOx

Others

Unintentional fuel evaporation regulations

The emissions of gasoline vapors from the tank of a stationary vehicle can also be limited. To reduce this, an activated charcoal filter is installed, which can store the vapors and, when the engine is running, feeds the vapors for combustion and thus regenerates the memory.

Deviations between laboratory and reality

A study carried out in 2011 by the scientific service of the European Commission showed that the NO x emissions of diesel cars during real road trips are well above the limit values ​​applicable for type testing in the laboratory.

A study published by the ICCT ( International Council on Clean Transportation ) in October 2014 came to the conclusion that the real NO x emissions of Euro 6 diesel vehicles are on average 7 times above the limit of Euro 6. In September 2015, the ICCT published a white paper according to which 22 of 32 tested models only managed the limit value for NO x in the laboratory.

On September 20, 2015, following investigations by the EPA , Volkswagen admitted that it had programmed the engine control units of 11 million diesel vehicles so that it recognizes a test situation on the roller test bench and switches to a different map. This so-called defeat device is not permitted in the USA or in Europe. The vehicles delivered in this way exceeded the permitted US limit values ​​by up to 35 times in real traffic. In the wake of this emissions scandal , the Chairman of the Board of Management of Volkswagen AG Martin Winterkorn resigned from his post.

In 2015, in the wake of the emissions scandal , European governments demanded new rules for testing emissions in real driving operation ("RDE") with regard to standards for nitrogen oxides . The new rules are intended to enforce tests of nitrogen oxide emissions in practical driving, but on the other hand define leeway for exceeding permitted limit values ​​for nitrogen oxide emissions in practical driving. A technical committee agreed in October 2015 on a conformity factor of 2.1 for the type approval of new models from September 2017, and for all new approvals from September 2019; This means that from that point in time these vehicles are allowed to emit 110% more nitrogen oxides than specified by the limit values. From January 2020, a conformity factor of 1.5 will apply to the type approval of new models, so that the limit values ​​may be exceeded by 50%; this applies to all new registrations from January 2021. The European Commission emphasized that this represents a significant step forward compared to the current exceedance of the limit values ​​by an average of 400%.

At the beginning of February 2016, the European Parliament rejected a motion to veto these new rules submitted by the Environment Committee, thus clearing the way for them. In the run-up, many voices from the automotive industry , from the European Commission and from national governments had clearly spoken out in favor of adopting the new rules; others had criticized the fact that the new rules were so watered down compared to the original regulation proposal and that they did not restrict the automotive industry so much that they were in fact illegitimate; Shortly before the vote on the veto, the Legal Affairs Committee (JURI) came to the conclusion with only a narrow majority that the new regulation was inadmissible as it violated Regulation 715/2007 / EC. These increased limit values ​​in real road traffic were declared inadmissible by the EU court on December 13, 2018.

A study published in 2020 by the environmental organization Transport & Environment (T&E) checked emissions in accordance with the Euro 6d-TEMP emissions standard. The particulate filters used here have to be burned free of the accumulated soot after several hundred kilometers. According to the study, the fine dust emissions rose sharply during the burn-off and were above the permissible limit values. Although the emissions over the entire test period were 32 to 115 percent above the limit values ​​for fine dust emissions, this does not constitute a violation of the exhaust gas standard, since the limit values ​​may be exceeded indefinitely during the burn-off. The particles emitted in this way are, however, relatively large and pose only a minor health risk. In addition, ammonia was emitted via the exhaust system due to a non-optimal ammonia injection during the burn-off process, which could potentially pose a health risk.

Federal Environment Agency

For Germany, the Federal Environment Agency determined the discrepancies between applicable limit values ​​and actual emissions in 2017 and 2019. According to this, diesel cars complying with the Euro 4, Euro 5 and Euro 6 emission standards (without 6d-TEMP and newer ones) in Germany in reality emit 674, 950 and 614 mg nitrogen oxides per km, while the nitrogen oxide limit values ​​are 250, 180 and 80 mg NO x per km. For 8 tested Euro 5 vehicles with EA189 engines on which a software update was carried out, the Federal Environment Agency gives a value of 588 mg NO x / km.

NO x for cars with diesel engines (figures in mg / km) ,
standard Euro 3 Euro 4 5 euro Euro 6 (abc) Euro 6d-TEMP
NEDC 500 250 180 80 (up to Euro 6b) -
WLTP - - - 80 (Euro 6c) 80
measured 803 * 674 * 950 614 46

Values ​​marked with * have not been updated or mentioned in the more recent publication and are therefore from 2017. This table does not take into account the CF factors of 2.1 and 1.43. It was always clear in the emissions legislation for vehicles that test values ​​in new automobiles are lower than real values ​​in other load conditions, which have only been able to be measured on the move for a few years.

Cars with the Euro 4/5/6 emission standards, with the exception of Euro 6d-TEMP, do not even meet the Euro 3 (500 mg / km) requirements in real traffic. Separate values ​​for vehicles with Euro 6c were not published. A study by the International Council on Clean Transportation (2016) on NO x emissions from heavy trucks and buses in the Euro 6 emission class determined 210 mg / km NO x in real traffic , less than half of the passenger cars measured.

In 2019, the Federal Environment Agency reported that the limit values ​​for diesel cars had only been met by the Euro 6d-TEMP emissions standard. At the time of publication, only around 5 percent of diesel cars complied with this emission standard. Per kilometer they produce an average of 46 milligrams of NO x - emissions during actual driving .

Vehicles with retrofit kits for Euro 4 and 5 must comply with 270 mg per km. Only a few vehicles have been retrofitted so far. The retrofit companies are facing bankruptcy if the misery persists. VW customers prefer to take compensation instead of retrofitting.

Pollutant classes and badges

In Germany, the ordinance on labeling motor vehicles with a low level of pollution came into force on March 1, 2007. This provides for regional traffic bans and, depending on the exhaust emissions standard, exceptions to these, which are identified by colored stickers. The sticker is issued depending on the pollutant class - more precisely the emission code number in the vehicle documents - by the registration offices , testing organizations or workshops authorized to examine the engine management and emission control system:

Vehicles with gasoline engines
Euro 1 or better green
Worse than Euro 1 with G-Kat green
Worse than Euro 1 and without a G-Kat no badge
Vehicles with a diesel engine
Euro 4 or better, D4 or Euro 3 / D4 green
Euro 3 yellow
Euro 2 red
Euro 1 or worse no badge

By retrofitting a diesel particulate filter , a better level of particle reduction can also be achieved and a better sticker can then be issued. A vehicle with the Euro 3 emissions standard - yellow sticker - can e.g. B. achieve particle emissions of Euro 4 by retrofitting and then receive a green sticker.

Influence on motor vehicle tax in Germany

For a long time, the motor vehicle tax for cars in Germany was determined according to the emissions standard and the engine capacity . In the meantime, however, different tax rates only apply to vehicles that do not meet the Euro 3 emissions standard, as well as to diesel cars without a particulate filter . Instead, consumption- dependent CO 2 emissions are an important variable today .

United States

In the USA, the special feature to be taken into account is that there are different worlds with regard to emission standards. For historical reasons, the state of California has autonomous emissions legislation with its own limit values, standards and emissions classes for its area of ​​application. There is also an autonomous authority for the further development and monitoring of the standards - the CARB ( California Air Resources Board ). Other states are given the opportunity to join the California emission regulations as well. They are therefore subject to CARB and no longer to the authorities of the other states. This is the Environmental Protection Agency (EPA). The first national emissions standard (Tier I; Tier II has been introduced since 2004) has been in force here since 1994; previously, only regional regulations from individual countries were applied.

The pictures show the different pollutant limit values ​​in their levels, namely the federal American (EPA) and Californian standards in comparison. In addition, the European limits are also included. It must be taken into account that neither in the America of the 49 states nor in California there is a distinction between diesel and gasoline-powered vehicles.

Comparative comparison of the European and American pollutant limit values ​​in their different levels (HC or NMOG via NO x )
Comparative comparison of the European and American pollutant limit values ​​in their different levels (particles via HC + NO x , or via NO x (American))
States within the scope of the CARB or in the process of accession
status Country Accession with model year
joined
(12 states)
Massachusetts, New York, Vermont 2004
Connecticut, New Jersey, Pennsylvania, Rhode Island 2008
Maine, Oregon, Washington 2009
Maryland, New Mexico 2011
under discussion
(6 states)
Colorado, Florida, Montana, North Carolina, Utah, Wisconsin -

The possibility of a step-by-step introduction ("phase-in") of new, more stringent standards is fundamentally different from European emission standards. This means that not all newly registered vehicles need to meet these standards from a certain point in time, but always only a certain percentage, which then increases from year to year. In addition, so-called "fleet mean values" are being introduced for certain exhaust gas components. The current Tier 3 standard was introduced in 2017, but due to the phase-in, 100% of all newly registered vehicles will not have to be certified according to this standard until 2025. With the exception of the particulate matter (PM), the Tier 3 standard is one-to-one congruent with the LEV III standard introduced by CARB in 2015. This is to make it easier for automakers to sell the same vehicles in all 50 states.

USA, Federal

EPA Tier 2 limits for LDV and LDT
Standard /
pollutant
(unit)
Emission limits at 80,000 km Emission limits at 192,000 km (lifetime)
NO x
(mg / km)
NMOG
(mg / km)
CO
(mg / km)
PM
(mg / km)
HCHO
(mg / km)
NO x
(mg / km)
NMOG
(mg / km)
CO
(mg / km)
PM
(mg / km)
HCHO
(mg / km)
Am 1 - - - - - 0 0 0 0 0
Am 2 - - - - - 32 16 3380 16 6.4
Am 3 - - - - - 48 89 3380 16 17.7
Am 4 - - - - - 64 113 3380 16 17.7
Am 5 80 121 5470 - 24 113 145 6760 16 29
Am 6 129 121 5470 - 24 161 145 6760 16 29
Am 7 177 121 5470 - 24 241 145 6760 32 29
Am 8 225 161/201 c 5470 - 24 322 201/251 6760 32 29
Am 9 322 121/225 5470 - 24 483 145/290 6760 97 29
Am 10 644 201/257 5470/7080 - 24/290 966 251/370 6760/10300 129 29/43
Am 11 966 306 8050 - 35 1450 450 11700 193 50
EPA tier 3 limits for LDV, MDPV and LDT (since 2017)
Standard /
pollutant
(unit)
Emission limits at 150,000 mi (lifetime)
NMOG + NO x
(mg / mi)
CO
(mg / mi)
HCHO
(mg / mi)
PM
(mg / mi)
I'm 160 160 4200 4th 3
I'm 125 125 2100 4th 3
I'm 70 70 1700 4th 3
I'm 50 50 1700 4th 3
Am 30 30th 1000 4th 3
I'm 20 20th 1000 4th 3
Am 0 0 0 0 0

Abbreviations: NO x : nitrogen oxides; NMOG: all hydrocarbons except methane (Non-Methane Organic Gases); CO: carbon monoxide; PM: particle mass; HCHO: formaldehyde; LDV: Light Duty Vehicle; LDT: Light Duty Truck; MDPV: Medium Duty Passenger Vehicles

USA, California

Due to its geographical location and the resulting numerous inversion weather patterns, California was already suffering from enormous air pollution in the 1930s. This was due to the drastic increase in road traffic, especially in the metropolitan areas of Los Angeles , San Francisco and San Diego . These situations led to health problems for the population and numerous deaths. This fact led to the signing of the Air Pollution Control Act in 1947. As a result, the state of California was given legislative power by the federal government in 1950, whereby California was able to develop its own environmental protection legislation independently of federal legislation, with its own standards, To install procedures and limit values ​​as well as a separate authority, to monitor and further develop these standards.

Under the government of Governor Ronald Reagan , the California Air Resources Board was created in 1967 by merging two agencies. The California Clean Air Act was enacted in 1988 in order to reduce the health problems of the population caused by the frequent smog in the medium term . Against this background, a program was developed, with low emissions called for in several stages vehicles using different standards up to the Zero Emission Vehicle (ZEV) -so zero emission vehicles - are introduced. In the first stage, this program was called Low-Emission-Vehicle I (LEV I), and was made mandatory for passenger cars (passenger cars) and light-duty vehicles (light commercial vehicles) in a so-called phase-in from 1995. In 2004, LEV I was replaced by LEV II with even stricter limit values. A phase-out (for LEV I) with a simultaneous phase-in (for LEV II) then took place between 2004 and 2007. In 2015, the current emissions standard was introduced with LEV III. Here, too, a transition phase between the two categories is underway between 2015 and 2019.

LEV-II limit values ​​for light duty vehicles (2004 to 2019)
Standard /
pollutant
(unit)
Durability 50,000 miles Durability 120,000 miles
NMOG
(mg / mi)
CO
(mg / mi)
NO x
(mg / mi)
PM
(mg / mi)
HCHO
(mg / mi)
NMOG
(mg / mi)
CO
(mg / mi)
NO x
(mg / mi)
PM
(mg / mi)
HCHO
(mg / mi)
LEV 2 75 3400 50 - 15th 90 4200 70 10 18th
ULEV 2 40 1700 50 - 8th 55 2100 70 10 11
SULEV 2 - - - - - 10 1000 20th 10 4th
ZEV 2 0 0 0 0 0 0 0 0 0 0
LEV III limit values ​​for cars and light duty trucks (since 2015)
Standard /
pollutant
(unit)
Durability 150,000 miles
NMOG + NOx
(mg / mi)
CO
(mg / mi)
HCHO
(mg / mi)
PM
(mg / mi)
LEV160 160 4200 4th 10
ULEV125 125 2100 4th 10
ULEV70 70 1700 4th 10
ULEV50 50 1700 4th 10
SULEV30 30th 1000 4th 10
SULEV20 20th 1000 4th 10
Abbreviations
NO x : nitrogen oxides; NMOG: all hydrocarbons except methane (Non-Methane Organic Gases); CO: carbon monoxide; PM: particle mass; HCHO: formaldehyde
LEV: Low Emission Vehicle; ULEV: Ultra Low Emission Vehicle; SULEV: Super Ultra Low Emission Vehicle; ZEV: Zero Emission Vehicle

China

Domestic shipping

The China I / II standards are based on the US marine standards, with China I corresponding to the US Tier 2 standard. The China I / II regulations were adopted in 2016 and will come into effect in 2018 (China I) and 2021 (China II).

The standards apply to new and overhauled marine engines (propulsion and auxiliary engines) of categories 1 and 2 on ships that are registered in China and operated in Chinese territorial waters.

The engine categories are based on the US designations and are defined as follows:

  •    Category 1 marine engines - rated power ≥ 37 kW and a displacement Vh of less than 5 l per cylinder.
  •    Category 2 marine engines - displacement per cylinder ≥ 5l and less than 30l.

The following table shows the China II standard, there is currently no limit for PN. The China I / II standards do not apply to ocean-going ships, ships that are only used in emergencies, or small marine engines below 37 kW.

category Stroke volume Vh Performance p CO HC + NOx CH 4 1 PM introduction
  dm³ per cylinder kW g / kWh g / kWh g / kWh g / kWh  
1 Vh <0.9 p ≥ 37 5.0 5.8 1.0 0.3 July 2021
0.9 ≤ Vh <1.2 5.0 5.8 1.0 0.14
1.2 ≤ Vh <5 5.0 5.8 1.0 0.12
2 5 ≤ Vh <15 p <2000 5.0 6.2 1.2 0.14 July 2021
2000 ≤ p <3700 5.0 7.8 1.5 0.14
p ≥ 3700 5.0 7.8 1.5 0.27
15 ≤ Vh <20 p <2000 5.0 7.0 1.5 0.34
2000 ≤ p <3300 5.0 8.7 1.6 0.50
p ≥ 3300 5.0 9.8 1.8 0.50
20 ≤ Vh <25 p <2000 5.0 9.8 1.8 0.27
p ≥ 2000 5.0 9.8 1.8 0.50
25 ≤ Vh <30 p <2000 5.0 11.0 2.0 0.27
p ≥ 2000 5.0 11.0 2.0 0.50
1 Applicable to ships with gas and dual fuel engines

In addition, a useful life of 10,000 hours or 10 years must be proven over a 2500h endurance run .

There is also a so-called Domestic Emission Control Area (DECA) for the coast of China in which separate rules apply, in particular with regard to the fuel sulfur content. This DECA is not to be confused with an IMO-ECA .

Marine (ocean shipping)

The exhaust emissions from ocean-going vessels are determined by the UN organization IMO ( International Maritime Organization ) and apply to all engines> 160kW.

North and Baltic Sea SECA
Worldwide ECAs

In principle, a distinction is made between two different areas: global limit values ​​and limit values ​​that must be adhered to in so-called Emission Control Areas (ECA). There is currently an ECA (NECA) for NOx off the coast of North America and an additional one for sulfur in the North and Baltic Seas (SECA).

The sulfur limit values ​​apply to all ships, regardless of the year of construction, and can be complied with by using the right fuel as well as by using exhaust gas washers that remove the sulfur oxides from the exhaust gas.

year Sulfur limit value related to the fuel (% m / m)
SECA Global
2000 1.5 4.5
07.2010 1.0
2012 3.5
2015 0.1
2020 0.5

The sulfur emissions of the ship must be proven either by means of fuel certificates (bunker notes) or a permanent sulfur emission measurement. Violations of the sulfur limit values ​​are punished by the local authorities, but the amount of the punishment varies greatly. B. Norway (80,000 €), China (1,300–13,000 €), USA against Carnival Corporation (20 million US dollars, besides sulfur also other environmental crimes). When using scrubbers, regulations regarding their wastewater must also be observed, and violating them can also result in severe penalties. Concerning. It is noticeable that the majority of the documented violations were committed by cruise ship operators (e.g. Carnival with a total fine of 60 million US dollars), although these ships only make up a fraction of the total shipping fleet.

In contrast, with NO x , in particular in comparison to European limit values ​​that apply to all motor vehicles from a certain key date, the following special features apply with regard to the IMO NO x regulations.

  1. The limit values ​​do not apply from the time the ship is put into operation, but from its keel-laying. In practice, this means that before stricter limit values ​​come into force, many keels are produced on stockpile. This is usually a steel beam that is stamped with a unique IMO number. This keel can be stored and only used years later to build a ship. As a result, even years after the new NO x regulations come into force , ships can still be built or put into operation in accordance with the old regulations.
  2. In contrast to the regulations regarding sulfur, the ships do not have to meet the current limit values ​​when entering a NECA, but only those that were valid at the time of their keel-laying.
  3. In the event of a major conversion of the ship (e.g. if the main engine is replaced), the current limit values ​​must be observed.
  4. The NO x limit values ​​are speed-dependent and decrease with the speed n of the engine. I.e. large, slow-running engines are allowed to emit more NO x than small, high-speed ones.
animal introduction NO x limit, g / kWh depending on the speed n
n <130 130 ≤ n <2000 n ≥ 2000
Tier I. 2000 17.0 45 · n -0.2 9.8
Tier II 2011 14.4 44 · n -0.23 7.7
Tier III 2016 3.4 9 · n -0.2 1.96

Under the above restrictions, the Tier III limit values ​​currently apply in NECAs, while Tier II must be complied with in the rest of the world's oceans. While limit value levels I and II can still be complied with within the engine, SCR systems (two and four-stroke engines), exhaust gas recirculation (two-stroke engines) or a switch to gas operation (dual-fuel four-stroke engines) are used for Tier III.

In addition, the ships' CO 2 emissions are determined using the so-called Energy Efficiency Design Index EEDI, which in future will also be used to regulate the emissions of the greenhouse gas methane.

There are no IMO limit values ​​for CO and HC, a limit value is currently being discussed for soot (black carbon). The reason for this is that shipping and thus soot immissions are increasing sharply, especially in the area of ​​the Arctic Ocean. The soot precipitates on the ice surfaces and turns them gray. This increases the amount of heat absorbed from the radiated solar energy, which leads to accelerated melting.

See also

Web links

Wiktionary: emission standard  - explanations of meanings, word origins, synonyms, translations

Individual evidence

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