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Commission Delegated Regulation (EU) 2015/208 of 8 December 2014 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance)
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THE EUROPEAN COMMISSION,
Having regard to the Treaty on the Functioning of the European Union,
Having regard to Regulation (EU) No 167/2013 of the European Parliament and of the Council of 5 February 2013 on the approval and market surveillance of agricultural and forestry vehicles(1), and in particular Article 17(5) and Article 49(3),
Whereas:
(1) The internal market comprises an area without internal frontiers in which the free movement of goods, persons, services and capital is ensured. To that end, a comprehensive EU type-approval system and a strengthened market surveillance system for agricultural and forestry vehicles and their systems, components and separate technical units as defined by Regulation (EU) No 167/2013 apply.
(2) Agricultural and forestry vehicles falling under the definition of ‘tractor’ set out in Article 3(8) of Regulation (EU) No 167/2013, on which machinery is mounted, should be type-approved in accordance with Article 77 of that Regulation.
(3) That mounted machinery enables tractors to be used for a wide variety of agricultural and forestry purposes, including special purpose works. Therefore, that mounted machinery should be subject to Directive 2006/42/EC of the European Parliament and of the Council(2), as set out in Article 77 of Regulation (EU) No 167/2013.
(4) By Council Decision 97/836/EC(3), the Union acceded to the Agreement of the United Nations Economic Commission for Europe (UNECE) concerning the adoption of uniform technical prescriptions for wheeled vehicles, equipment and parts which can be fitted to and/or be used on wheeled vehicles and the conditions for reciprocal recognition of approvals granted on the basis of these prescriptions (‘Revised 1958 Agreement’). In its communication CARS 2020: Action Plan for a competitive and sustainable automotive industry in Europe, the Commission highlighted that the acceptance of international regulations under the 1958 UNECE Agreement is the best way to remove non-tariff barriers to trade.
(5) By Decision 97/836/EC, the Union also acceded to UNECE Regulations Nos 3, 4, 5, 6, 7, 19, 23, 31, 37, 38, 43, 71, 79, 98 and 99.
(6) In the Union, some of the requirements under regulations on vehicle parts are taken over from the corresponding UNECE regulations. As technology progresses, UNECE regulations are constantly amended and the relevant Union regulations have to be regularly updated to keep them in line with the content of the respective UNECE regulations.
(7) The possibility to apply UNECE regulations for the purpose of EU vehicle type-approval as a basis to Union legislation is provided for in Regulation (EU) No 167/2013. According to that Regulation, type-approval in accordance with UNECE regulations which apply on an equal basis to Union legislation is to be considered as EU type-approval in accordance with that Regulation and its delegated and implementing acts.
(8) Using UNECE regulations on an equal basis to Union legislation helps to avoid duplication not only of technical requirements but also of certification and administrative procedures. In addition, type-approval that is directly based on internationally agreed standards should improve market access in third countries, in particular in those which are contracting parties to the Revised 1958 Agreement, thus enhancing the competitiveness of Union industry.
(9) It is appropriate to include UNECE Regulations Nos 3, 4, 5, 6, 7, 19, 23, 31, 37, 38, 43, 71, 79, 98, 99, 106, 112, 113 in Annex I to this Regulation, which lists the UNECE regulations that apply on an equal basis to Union legislation.
(10) Article 17 of Regulation (EU) No 167/2013 and Annex I to that regulation lay down functional safety requirements previously covered in Directives repealed in that Regulation. While the requirements laid down in this Regulation have to a large extent been carried over from those repealed directives, important modifications should be introduced where necessary to update to technical progress, extend the scope to further vehicle categories or to increase the level of safety as regards, for example: steerability, glazing, dimensions and masses, tyres and mechanical couplings are deemed paramount for the functional safety of agricultural and forestry vehicles. Requirements regarding the maximum design speed, speed governor and speed-limitation devices should be introduced to address specific characteristics of agricultural and forestry tractors that are designed for off-road use but that travel also on hard-paved public roads.
(11) Where manufacturers may choose to apply for national type-approval in accordance with Article 2 of Regulation (EU) No 167/2013, Member States should, for all subjects covered in this Regulation be free to set requirements for the purposes of national type-approval which are different from the requirements of this Regulation. For the purposes of national type-approval, national authorities may not, on grounds relating to the functional safety, refuse to approve types of vehicles, systems, components and separate technical units which are compliant with the requirements provided for in this Regulation, with the exception of the requirements on certain subjects, as some Member States have stricter requirements at national level.
(12) Member States should prohibit the making available on the market, registration, or entry into service of new vehicles not complying with the requirements of this Regulation as from the same date as provided for in Regulation 167/2013 and the other delegated acts adopted thereunder.
(13) In order to allow for a uniform application date of all new type-approval rules, this Regulation should apply as from 1 January 2016, date of application of Regulation (EU) No 167/2013,
HAS ADOPTED THIS REGULATION:
This Regulation establishes the detailed technical requirements and test procedures regarding functional safety, except with respect to braking performance, for the approval and market surveillance of agricultural and forestry vehicles and the systems, components and separate technical units intended for such vehicles in accordance with Regulation (EU) No 167/2013.
The definitions of Regulation (EU) No 167/2013 shall apply. In addition, the following definitions shall apply:
‘Towing device’ means a component on the tractor designed to provide a mechanical link between the tractor and a towing vehicle to tow the tractor away in case it cannot be self-propelled;
‘Unladen mass in running order’ of a vehicle means the mass of the unladen vehicle ready for normal use and including the standard equipment in accordance with the manufacturer’s specifications, coolant, lubricants, fuel, tools and driver (considered equal to 75 kg) and excluding optional accessories;
‘Steering control’ means the part directly operated by the driver in order to steer the tractor;
‘Steering effort’ means the force exerted by the driver on the steering control in order to steer the tractor;
‘[F1Tyres normally fitted’ means the type or types of tyre provided by the manufacturer on the vehicle type in question and specified in the information document the template of which is set out in Article 2 of Commission Implementing Regulation (EU) 2015/504 (4) ;]
[F1‘ Tracks normally fitted ’ means the type or types of track provided by the manufacturer on the vehicle type in question and specified in the information document the template of which is set out in Article 2 of Implementing Regulation (EU) 2015/504;]
‘Rear-view mirror’ means any device intended to give, within the field of vision geometrically defined in point 5 of Annex IX, a clear view to the rear which, within reasonable limits, is not blocked by component parts of the tractor or by the occupants of the tractor itself;
‘Interior rear-view mirror’ means a rear-view mirror which is fitted inside the cab or frame of a tractor;
‘Class of rear-view mirror’ means all rear-view mirrors having one or more common characteristics or functions;
‘Lamp’ means a device designed to illuminate the road (headlamp) or to emit a light signal;
‘Tractor wheelbase’ or ‘Vehicle wheelbase’ means the distance between the vertical planes perpendicular to the median longitudinal plane of the tractor or of the vehicle passing through the axles of the tractor or of the vehicle;
[F1‘ Laden vehicle ’ means a vehicle loaded at its technically permissible maximum laden mass;]
[F2‘ Cab ’ means the operator enclosure which surrounds the operator by means of a physical barrier and prevents the free passage of external air into the area of the operator.]
Textual Amendments
F1 Substituted by Commission Delegated Regulation (EU) 2016/1788 of 14 July 2016 amending Regulation (EU) No 167/2013 of the European Parliament and of the Council as regards the list of requirements for vehicle EU type-approval, and amending and correcting Commission Delegated Regulations (EU) No 1322/2014, (EU) 2015/96, (EU) 2015/68 and (EU) 2015/208 with regard to vehicle construction and general requirements, to environmental and propulsion unit performance requirements, to vehicle braking requirements and to vehicle functional safety requirements (Text with EEA relevance).
F2 Inserted by Commission Delegated Regulation (EU) 2016/1788 of 14 July 2016 amending Regulation (EU) No 167/2013 of the European Parliament and of the Council as regards the list of requirements for vehicle EU type-approval, and amending and correcting Commission Delegated Regulations (EU) No 1322/2014, (EU) 2015/96, (EU) 2015/68 and (EU) 2015/208 with regard to vehicle construction and general requirements, to environmental and propulsion unit performance requirements, to vehicle braking requirements and to vehicle functional safety requirements (Text with EEA relevance).
1.Manufacturers shall equip agricultural and forestry vehicles with systems, components and separate technical units affecting their functional safety that are designed, constructed and assembled so as to enable the vehicle in normal use and maintained according to the prescriptions of the manufacturer to comply with the detailed technical requirements and testing procedures laid down in Articles 5 to 38.
2.Manufacturers shall demonstrate by means of physical demonstration testing to the approval authority that the agricultural and forestry vehicles made available on the market, registered or entering into service in the Union comply with the functional safety requirements laid down in Article 17 of Regulation (EU) No 167/2013 and Annex I to that Regulation and comply with the detailed technical requirements and test procedures laid down in Articles 5 to 38 of this Regulation.
3.Manufacturers shall ensure that spare parts that are made available on the market or are entering into service in the Union comply with the detailed technical requirements and test procedures laid down in this Regulation.
4.Manufacturers shall submit to the approval authority a description of the measures taken to prevent tampering with, and modification of, the powertrain management system, including the functional safety electronic control computers, where fitted.
The UNECE regulations and amendments thereto set out in Annex I to this Regulation shall apply to type-approval of agricultural and forestry vehicles.
1.The functional safety performance test procedures shall be performed in accordance with the test requirements laid down in this Regulation.
2.The tests shall be carried out or witnessed by the approval authority or, where authorised by the approval authority, by the technical service.
[F13. The measurement methods and test results shall be reported to the approval authority in the test report format set out in Article 9 of Implementing Regulation (EU) 2015/504.]
Textual Amendments
F1 Substituted by Commission Delegated Regulation (EU) 2016/1788 of 14 July 2016 amending Regulation (EU) No 167/2013 of the European Parliament and of the Council as regards the list of requirements for vehicle EU type-approval, and amending and correcting Commission Delegated Regulations (EU) No 1322/2014, (EU) 2015/96, (EU) 2015/68 and (EU) 2015/208 with regard to vehicle construction and general requirements, to environmental and propulsion unit performance requirements, to vehicle braking requirements and to vehicle functional safety requirements (Text with EEA relevance).
The performance requirements applying to vehicle structure integrity referred to in Article 17(2)(a) of Regulation (EU) No 167/2013 shall be verified in accordance with Annex II to this Regulation.
The test procedures and performance requirements applying to speed, speed governors and speed-limitation devices referred to in Article 17(2)(b) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex III to this Regulation.
The test procedures and performance requirements applying to steering for fast tractors referred to in Article 17(2)(b) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex IV to this Regulation.
The test procedures and performance requirements applying to steering referred to in Article 17(2)(b) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex V to this Regulation.
The test procedures and performance requirements applying to speedometer referred to in Article 17(2)(b) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex VI to this Regulation.
The test procedures and performance requirements applying to field of vision and windscreen wipers referred to in Article 17(2)(c) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex VII to this Regulation.
The test procedures and requirements applying to glazing referred to in Article 17(2)(c) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex VIII to this Regulation.
The test procedures and performance requirements applying to rear view mirrors referred to in Article 17(2)(c) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex IX to this Regulation.
The test procedures and requirements applying to driver information systems referred to in Article 17(2)(c) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex X to this Regulation.
The test procedures and performance requirements applying to lighting, light-signalling devices and their light sources referred to in Article 17(2)(d) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XI to this Regulation.
The test procedures and requirements applying to lighting installations referred to in Article 17(2)(d) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XII to this Regulation.
The test procedures and performance requirements applying to occupant protection, including interior fittings, head restraint, seat belts and vehicle doors referred to in Article 17(2)(e) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XIII to this Regulation.
The test procedures and requirements applying to vehicle exterior and accessories referred to in Article 17(2)(f) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XIV to this Regulation.
The test procedures and performance requirements applying to electromagnetic compatibility referred to in Article 17(2)(g) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XV to this Regulation.
The test procedures and performance requirements applying to audible warning devices referred to in Article 17(2)(h) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XVI to this Regulation.
The test procedures and performance requirements applying to heating systems referred to in Article 17(2)(i) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XVII to this Regulation.
The test procedures and performance requirements applying to devices to prevent unauthorised use referred to in Article 17(2)(j) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XVIII to this Regulation.
The test procedures and requirements applying to registration plates referred to in Article 17(2)(k) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XIX to this Regulation.
The requirements applying to statutory plates and marking referred to in Article 17(2)(k) of Regulation (EU) No 167/2013 shall be verified in accordance with Annex XX to this Regulation.
The test procedures and requirements applying to dimensions and trailer masses referred to in Article 17(2)(l) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXI to this Regulation.
The test procedures and requirements applying to the maximum laden mass referred to in Article 17(2)(l) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXII to this Regulation.
The test procedures and requirements applying to ballast masses referred to in Article 17(2)(l) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXIII to this Regulation.
The requirements applying to electrical systems referred to in Article 17(2)(m) of Regulation (EU) No 167/2013 shall be verified in accordance with Annex XXIV to this Regulation.
The test procedures and performance requirements applying to fuel tanks referred to in Article 17(2)(a) and (m) and 18(2)(l) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXV to this Regulation.
The test procedures and performance requirements applying to rear protective structures referred to in Article 17(2)(n) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXVI to this Regulation.
The test procedures and requirements applying to lateral protection referred to in Article 17(2)(o) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXVII to this Regulation.
The test procedures and requirements applying to load platforms referred to in Article 17(2)(p) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXVIII to this Regulation.
The performance requirements applying to towing devices referred to in Article 17(2)(q) of Regulation (EU) No 167/2013 shall be verified in accordance with Annex XXIX to this Regulation.
The test procedures and performance requirements applying to tyres referred to in Article 17(2)(r) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXX to this Regulation.
The test procedures and performance requirements applying to spray-suppression systems referred to in Article 17(2)(s) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXXI to this Regulation.
The requirements applying to the reverse gear referred to in Article 17(2)(t) of Regulation (EU) No 167/2013 shall be verified in accordance with Annex XXXII to this Regulation.
The test procedures and performance requirements applying to tracks referred to in Article 17(2)(u) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXXIII to this Regulation.
The test procedures and performance requirements applying to mechanical couplings referred to in Article 17(2)(v) of Regulation (EU) No 167/2013 shall be conducted and verified in accordance with Annex XXXIV to this Regulation.
With effect from 1 January 2018, national authorities shall, in the case of new vehicles that do not comply with Regulation (EU) No 167/2013 and this Regulation on functional safety, prohibit the making available on the market, registration, or entry into service of such vehicles.
National authorities shall not refuse to grant national type-approval to a type of vehicle, system, component or separate technical unit on grounds relating to functional safety where the vehicle, system, component or separate technical unit complies with the requirements set out in this Regulation, with the exception of requirements on the following:
vehicle dimensions and trailer mass set out in Article 25;
maximum laden mass set out in Article 26;
mean ground contact pressure and maximum load per track roller for tractors of category C set out in Article 37;
signalling panels and foils, set out in Article 16, of S-category vehicles with width exceeding 2,55 m.
1. Notwithstanding the application of the provisions of this Regulation, as amended by Commission Delegated Regulation (EU) 2018/829 (5) , national authorities shall, until 31 December 2018 , also continue to grant type-approvals to agricultural and forestry vehicle types, or types of systems, components or separate technical units in accordance with this Regulation, in its version applicable on 8 June 2018 .
2. Notwithstanding the application of the provisions of this Regulation, as amended by Delegated Regulation (EU) 2018/829, the Member States shall, until 30 June 2019 , also permit the placing on the market, registration or entry into service of agricultural and forestry vehicles, systems, components or separate technical units based on a type approved in accordance with this Regulation, in its version applicable on 8 June 2018 .]
Textual Amendments
F3 Inserted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
This Regulation shall enter into force on the twentieth day following that of its publication in the Official Journal of the European Union.
It shall apply as of 1 January 2016.
This Regulation shall be binding in its entirety and directly applicable in all Member States.
| [F1Annex Number | Annex title |
|---|---|
| I | List of applicable UNECE regulations |
| II | Requirements on vehicle structure integrity |
| III | Requirements on the maximum design speed, speed governors and speed limitation devices |
| IV | Requirements on steering for fast tractors |
| V | Requirements on steering |
| VI | Requirements on speedometers |
| VII | Requirements on the field of vision and windscreen wipers |
| VIII | Requirements on glazing |
| IX | Requirements on rear-view mirrors |
| X | [F1Requirements on driver information systems] |
| XI | Requirements on lighting, light-signalling devices and their light sources |
| XII | Requirements on lighting installations |
| XIII | Requirements on vehicle occupant protection, including interior fittings, head restraints, seat belts, vehicle doors |
| XIV | [F1Requirements on vehicle exterior and accessories] |
| XV | Requirements on the electromagnetic compatibility |
| XVI | Requirements on audible warning devices |
| XVII | Requirements on heating systems |
| XVIII | Requirements on devices to prevent unauthorised use |
| XIX | Requirements on registration plates |
| XX | Requirements on statutory plates and markings |
| XXI | Requirements on dimensions and trailer masses |
| XXII | Requirements on the maximum laden mass |
| XXIII | Requirements on ballast masses |
| XXIV | Requirements on the safety of electrical systems |
| XXV | Requirements on fuel tanks |
| XXVI | Requirements on rear protective structures |
| XXVII | Requirements on lateral protection |
| XXVIII | Requirements on load platforms |
| XXIX | Requirements on towing devices |
| XXX | Requirements on tyres |
| XXXI | Requirements on spray-suppression systems |
| XXXII | Requirements on the reverse gear |
| XXXIII | Requirements on tracks |
| XXXIV | Requirements on mechanical couplings] |
| Regulation Number | Subject | Series of amendments | OJ Reference | Applicability |
|---|---|---|---|---|
| [F21 | Lighting installation | Incorporating all valid text up to 02 series of amendments | OJ L 177, 10.7.2010, p. 1 | T and C] |
| 3 | Lighting, light-signalling devices and their light sources | Supplement 12 to the 02 series of amendments | OJ L 323, 6.12.2011, p. 1 | T, C, R and S |
| 4 | Lighting, light-signalling devices and their light sources | Supplement 14 to the original version of the Regulation Supplement 15 to the original version of the Regulation | T, C, R and S | |
| 5 | Lighting, light-signalling devices and their light sources | Incorporating all valid text up to 03 series of amendments | OJ L 162, 29.5.2014, p. 1 | T and C |
| [ F4 ] | ||||
| [F26 | Lighting, light signalling devices and their light sources | Supplement 18 to the 01 series of amendments Corrigendum 1 to Supplement 18 Supplement 19 to the 01 series of amendments | OJ L 177, 10.7.2010, p. 40 | T, C, R and S] |
| 7 | Lighting, light-signalling devices and their light sources Lighting installation | Supplement 16 to the 02 series of amendments | OJ L 148, 12.6.2010, p. 1 | T, C, R and S |
| [F28 | Lighting installation | Incorporating all valid text up to 05 series of amendments Corrigendum 1 to Revision 4 of the Regulation | OJ L 177, 10.7.2010, p. 71 | T and C] |
| 10 | Electromagnetic compatibility | 04 series of amendments Corrigendum 1 to the Revision 4 Supplement 1 to the 04 series of amendments | OJ L 254, 20.9.2012, p. 1 | T and C |
| 18 | Devices to prevent unauthorised use | Supplement 2 to the 03 series of amendments | OJ L 120, 13.5.2010, p. 29 | T and C |
| 19 | Lighting, light-signalling devices and their light sources | Supplement 2 to the 03 series of amendments | OJ L 177, 10.7.2010, p. 113 | T and C |
| [F220 | Lighting installation | Incorporating all valid text up to 03 series of amendments | OJ L 177, 10.7.2010, p. 170 | T and C] |
| 21 | Interior fittings – doors | Supplement 3 to the 01 series of amendments | OJ L 188, 16.7.2008, p. 32 | T and C |
| [ F4 ] | ||||
| [F223 | Lighting, light signalling devices and their light sources | Supplement 17 to the original version of the Regulation | OJ L 4, 7.1.2012, p. 18 | T, C, R and S] |
| 25 | Head restraints | 04 series of amendments Corrigendum 2 to Revision 1 of the Regulation | OJ L 215, 14.8.2010, p. 1 | T and C |
| 28 | Audible warning devices | Supplement 3 to the original version of the Regulation | OJ L 323, 6.12.2011, p. 33 | T and C |
| 30 | Tyres | Supplement 15 to the 02 series of amendments Supplement 16 to the 02 series of amendments | T, R and S | |
| 31 | Lighting, light-signalling devices and their light sources | Supplement 7 to the 02 series of amendments | OJ L 185, 17.7.2010, p. 15 | T and C |
| 37 | Lighting, light-signalling devices and their light sources | Supplement 34 to the 03 series of amendments | OJ L 297, 13.11.2010, p. 1 | T, C and R |
| 38 | Lighting, light-signalling devices and their light sources | Supplement 15 to the original version of the Regulation Corrigendum 1 to Supplement 12 Amendments to Regulation 38 incorporating Supplement 15 to the original version of the Regulation | T and C | |
| 43 | Glazing | Supplement 2 to the 01 series of amendments | OJ L 42, 12.02.2014, p. 1 | T and C |
| 46 | Rear view mirrors | Supplement 4 to the 02 series of amendments Corrigendum 1 to supplement 4 | OJ L 177, 10.7.2010, p. 211 | T and C |
| 48 | Lighting installation | Supplement 6 to the 04 series of amendments 05 series of amendments | OJ L 323, 6.12.2011, p. 46 | T, C, R and S |
| 54 | Tyres | Supplement 16 to the original version of the Regulation Supplement 17 to the original version of the Regulation | T, R and S | |
| 55 | Mechanical couplings | Supplement 1 to the 01 series of amendments | OJ L 227, 28.8.2010, p. 1 | T, C, R and S |
| 62 | Devices to prevent unauthorised use | Supplement 2 to the original version of the Regulation | OJ L 89, 27.3.2013, p. 37 | T and C |
| 69 | Lighting, light-signalling devices and their light sources Lighting installation | Supplement 5 to the 01 series of amendments | OJ L 200, 31.7.2010, p. 1 | T and C T, C, R and S |
| 73 | Lateral protection | 01 series of amendments | OJ L 122, 8.5.2012, p. 1 | R3b and R4B |
| 75 | Tyres | Supplement 13 to the Regulation in its original form | OJ L 84, 30.3.2011, p. 46 | T, R and S |
| [ F4 ] | ||||
| [F277 | Lighting installation | Supplement 14 to the original version of the Regulation | OJ L 4, 7.1.2012, p. 21 | T, C, R and S] |
| 79 | Steering for fast tractors | Supplement 3 to the 01 series of amendments | OJ L 137, 27.5.2008, p. 25 | Tb and Cb |
| 81 | Rear view mirrors | Supplement 2 to the original version of the Regulation | OJ L 185, 13.7.2012, p. 1 | T and C with straddle seat and handlebar |
| 87 | Lighting, light-signalling devices and their light sources | Supplement 14 to the original version of the Regulation Correction 1 to Revision 2 Supplement 15 to the original version of the Regulation | T and C | |
| 89 | Maximum design speed, speed governors and speed limitation devices | Supplement 1 to the original version of the Regulation | OJ L 158, 19.6.2007, p. 1 | T and C |
| 91 | Lighting, light-signalling devices and their light sources | Supplement 11 to the original version of the Regulation Supplement 12 to the original version of the Regulation Supplement 13 to the original version of the Regulation | R and S | |
| 98 | Lighting, light-signalling devices and their light sources | Supplement 4 to the 01 series of amendments | OJ L 176, 14.6.2014, p. 64 | T and C |
| 99 | Lighting, light-signalling devices and their light sources | Supplement 5 to the original version of the Regulation | OJ L 164, 30.6.2010, p. 151 | T and C |
| 104 | Lighting installation | Amendments incorporating all valid text up to: Supplement 7 to the original version of the Regulation | OJ L 75, 14.3.2014, p. 29 | T, C, R and S |
| 106 | Tyres | Supplement 8 to the original version of the Regulation | OJ L 257, 30.9.2010, p. 231 | T, R and S |
| 112 | Lighting, light-signalling devices and their light sources | Supplement 12 to the original version of the Regulation | OJ L 230, 31.8.2010, p. 264 | T and C |
| 113 | Lighting, light-signalling devices and their light sources | Amendments incorporating all valid text up to Supplement 3 to the 01 series of amendments to the Regulation | OJ L 176, 14.6.2014, p. 128 | T and C |
| 117 | Tyres | 02 series of amendments Corrigendum 1 to the 02 series of amendments Corrigendum 2 to the 02 series of amendments Corrigendum 3 to the 02 series of amendments | OJ L 307, 23.11.2011, p. 3 | T, R and S |
| 119 | Lighting, light-signalling devices and their light sources | Amendments incorporating all valid text up to Supplement 3 to the 01 series of amendments | OJ L 89, 25.3.2014, p. 101 | T and C |
| 122 | Heating systems | Corrigendum 2 to the original version of the Regulation Supplement 1 to the original version of the Regulation | OJ L 164, 30.6.2010, p. 231 | T and C |
| 123 | Adaptive front lighting systems | Incorporating all valid text up to Supplement 4 to the original version of the Regulation | OJ L 222, 24.8.2010, p. 1 | T and C |
| 128 | Light emitting diode (LED) light sources | Incorporating all valid text up to Supplement 2 to the original version of the Regulation | OJ L 162, 29.5.2014, p. 43 | T, C and R |
[F3The transitional provisions of the UNECE regulations listed in this table apply, except where specific alternative dates are provided for in this Regulation. Compliance with prescriptions in accordance with subsequent amendments to those listed in this table shall also be accepted.]
Textual Amendments
F4 Deleted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
For the purposes of this Annex:
‘Speed governor’ means a device used to measure and regulate the speed of the engine and/or vehicle.
‘Powertrain’ means a group of components that generate power and deliver it to the road surface, including the engine, transmission, drive shafts, differentials and drive wheels or tracks.
‘Tampering’ means unauthorised modifications which may prejudice functional safety, in particular by increasing vehicle performance, and damage the environment.
‘Speed limitation device’ means a device whose primary function is to control the fuel feed to the engine in order to limit the vehicle speed to the specified value.
Vehicles of categories T and C, with maximum design speed exceeding 60 km/h, shall be equipped with adjustable speed limitation devices that comply with the requirements set out in this Annex.
The powertrain tampering prevention measures are aimed at ensuring that a vehicle which meets the environmental and propulsion performance requirements, the vehicle construction requirements as well as the functional safety requirements at type approval remains compliant over its useful life and that adverse changes to the vehicle’s powertrain which have negative impacts on functional safety and/or on the environment are discouraged.
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
For a vehicle equipped with a straddle seat and handlebars, the same steering effort requirements shall apply at the middle of the grip.]
For the purposes of this Annex, the definitions in section 1 of Annex XXXIII shall apply. The following definitions shall also apply:]
‘Steering equipment’ means all the equipment the purpose of which is to alter the direction of movement of the tractor.
The steering equipment may be considered to include the steering control, the steering gear, the steered wheels, and, where applicable, special equipment to produce additional or independent power.
‘Steering gear’ means all the components between the steering control and the steered wheels, with the exception of the special equipment defined in point 1.3. The steering gear may be mechanical, hydraulic, pneumatic, electric or a combination of any of these.
‘Special equipment’ means the part of the steering equipment by which additional or independent power is produced. Additional or independent power may be produced by any mechanical, hydraulic, pneumatic or electrical system, or by any combination of these (for example by an oil pump, air pump or battery, etc.).
‘Assisted steering equipment’ means the equipment in which the power for the deflection of the steered wheels is provided both by the muscular power of the driver and by the special equipment; this includes steering equipment where the steering power is normally provided solely by the special equipment, but which in the event of failure of the special equipment enables the muscular power of the driver to be used for steering.
‘Servo-steering equipment’ means the equipment in which the power for the deflection of the steered wheels is provided solely by the special equipment.
‘Differential steering’ means a method of steering on wheels or on tracks where the orientation of the tractor is done by creating a different rotational speed between the left and the right hand wheels or track assemblies.
‘Steered wheels’ means one of the following:
the wheels the alignment of which may be altered directly or indirectly in relation to that of the tractor in order to obtain a change in the direction of movement of the tractor,
all wheels of articulated tractors,
wheels on the same axle, the speed of which may be varied in order to obtain a change in the direction of movement of the tractor.
For the test, the tractor shall be loaded to its technically permissible maximum mass; tyre pressures and mass distribution between the axles shall conform to the manufacturer’s instructions. The tracks pressure in particular shall not exceed the value provided for in point 3.3 of Annex XXXIII.
One or more pressure limitation devices shall protect the whole or part of the circuit against excess pressure;
The pressure limitation devices shall be set so as not to exceed a pressure T equal to the maximum operating pressure stated by the manufacturer;
The characteristics and dimensions of the pipe work shall be such that the pipes withstand four times the pressure T (permitted by the pressure limitation devices), and shall be protected in places and arranged in such a way that the risks of damage by impact or interference are reduced to a minimum, and the risks of damage by rubbing can be considered negligible.
If the tractor is equipped with assisted steering equipment, it shall be possible to drive it even in the event of failure of the special equipment. If the assisted steering equipment does not have its own source of power, it shall be fitted with a power reservoir. This power reservoir may be replaced by a self-contained device providing power supply to the steering equipment with priority over the other systems which are linked to the common energy source. [F1Without prejudice to the requirements laid down in Delegated Regulation (EU) 2015/68, if there is a hydraulic connection between the hydraulic steering equipment and the hydraulic braking equipment, and if both are supplied from the same energy source, the force required to activate the steering equipment shall not exceed 40 daN if either of the systems should fail.] If the source of power is compressed air, the air reservoir shall be protected by a non-return valve.
Where the steering power is provided solely by the special equipment, the assisted steering equipment shall be fitted with a device such that if, in the event of failure of the special equipment, the steering effort exceeds 25 daN, a visual or acoustic signal shall give warning of such failure.
If the tractor is fitted with servo-steering equipment and provided that such equipment has a wholly hydraulic steering gear, it shall be possible, should the special device or motor fail, to carry out the two manoeuvres specified in point 3.1.3 using a special additional device. The special additional device may be a compressed air or gas reservoir. An oil pump or compressor may be used as the special additional device if that device is worked by the rotation of the tractor wheels and cannot be disconnected from them. In the event of failure of the special equipment, a visual or acoustic signal shall give warning of such failure.
If the special device is pneumatic, it shall be fitted with a compressed air reservoir protected by a non-return valve. The capacity of the compressed air reservoir shall be calculated so that at least seven complete turns (from lock to lock) are possible before the reservoir pressure falls to half its operating pressure; the test shall be carried out with the steered wheels off the ground.
Textual Amendments
F5 Substituted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
For the purposes of this Annex:
‘Normal running pressure’ means the cold inflation pressure specified by the vehicle manufacturer increased by 0.2 bar.
‘Speedometer’ means that part of the speedometer equipment which indicates to the driver the speed of his vehicle at any given moment.
Tractors of the categories T4.1 and C4.1 with a maximum design speed not exceeding 30 km/h shall be equipped with a speedometer according to the requirements set out in this Annex.
The speedometer display shall be situated in the driver’s direct field of vision and shall be clearly legible both by day and by night. The range of speeds indicated shall be large enough to include the maximum speed given by the manufacturer for the type of vehicle.
The graduations shall be of 1, 2, 5 or 10 km/h. The values of the speed shall be indicated on the dial as follows:
when the highest value on the dial does not exceed 40 km/h, speed values shall be indicated at intervals not exceeding 10 km/h and graduations not exceeding 5 km /h;
when the highest value on the dial exceeds 40 km/h, the speed values shall be indicated at intervals not exceeding 20 km/h and graduations not exceeding 5 km /h.
Member States in which vehicle speed is, at the date of entry into force of this Regulation, measured in miles per hour, shall be permitted to require speedometer equipment fitted to vehicles sold in their countries to be marked both in kilometres per hour and in miles per hour, in accordance with Directive 2009/3/EC of the European Parliament and of the Council(7).
In the case of a speedometer manufactured for sale in any Member State where imperial units of measurement are used, the speedometer shall also be marked in mph (miles per hour); the graduations shall be of 1, 2, 5 or 10 mph. The values of the speed shall be indicated on the dial at intervals not exceeding 20 mph.
The indicated speed value intervals need not be uniform.
the vehicle is equipped with one of the types of tyre or track normally fitted; the test shall be repeated for each of the types of speedometer specified by the manufacturer;
the load on the axle driving the speedometer equipment shall correspond to the part of mass in running order undertaken by that axle;
the reference temperature at the speedometer shall be 23 ± 5 °C;
during each test the pressure of the tyres shall be the normal running pressure;
the vehicle is tested at the following three speeds: 20, 30 and 40 km/h, or 80 % of the maximum speed specified by the manufacturer, for fast tractors;
the test instrumentation used for measuring the true vehicle speed shall be accurate to ± 1,0 %;
the surface of a test track when used be flat and dry, and shall provide sufficient adhesion.
Vehicles of categories T and C shall comply with the following requirements:
ISO 5721-1:2013 on the field of vision forward and the windscreen wipers;
[F1The part concerning the vision beside the tractor, in ISO 5721-2:2014 on the field of vision to the side and to the rear of agricultural tractors. The requirements of point 5.1.3 of ISO 5721-2:2014 may be fulfilled by a combination of direct and indirect view. [F3The tests and acceptance criteria set out in ISO 5721-2:2014 shall also apply to tractors exceeding a width of 2,55 m.] ]
For the purposes of this Annex:
‘Driver’s eyes reference point’ means the position, fixed by convention, of the tractor driver’s eyes notionally located at a single point. That point is situated in the plane parallel to the longitudinal median plane of the tractor and passing through the centre of the seat, 700 mm vertically above the line of intersection of that plane and the surface of the seat and 270 mm in the direction of the pelvic support from the vertical plane passing through the front edge of the surface of the seat and perpendicular to the longitudinal median plane of the tractor (Figure 1). The reference point thus determined relates to the seat when unoccupied and fitted in the central position specified by the tractor manufacturer.
‘Safety glazing material requisite for the driver’s rearward vision’ means all glazing situated behind a plane passing through the driver’s eyes reference point perpendicular to the longitudinal median plane of the vehicle through which the driver can view the road when driving or manoeuvring the vehicle.
All tractors shall be equipped with two exterior rear-view mirrors and optionally with an interior rear-view mirror.
‘ Virtual terminals ’ means electronic on-board information systems with display screens that provide an operator with visual information on the performance of the vehicle and its systems, and that allow the operator to monitor and control various functions via a touch screen or keypad.
For the purposes of this Annex:
‘Transverse plane’ means a vertical plane perpendicular to the median longitudinal plane of the vehicle;
‘Independent lamps’ means lamps having separate lenses, separate light sources, and separate lamp bodies;
‘Grouped lamps’ means lamps having separate lenses and separate light sources, but a common lamp body;
‘Combined lamps’ means lamps having separate lenses but a common light source and a common lamp body;
‘Reciprocally incorporated lamps’ means lamps having separate light sources (or a single light source operating under different conditions), totally or partially common lenses and a common lamp body;
‘Variable position lamps’ means lamps installed on the vehicle which can move in relation to the vehicle, without being detached;
‘Main-beam headlamp’ means the lamp used to illuminate the road over a long distance ahead of the vehicle;
‘Dipped-beam headlamp’ means the lamp used to illuminate the road ahead of the vehicle without causing undue dazzle or discomfort to oncoming drivers and other road-users;
‘Concealable lamp’ means a headlamp capable of being partly or completely hidden when not in use. This result may be achieved by means of a movable cover, by displacement of the headlamp or by any other suitable means. The term 'retractable' is used more particularly to describe a concealable lamp the displacement of which enables it to be inserted within the bodywork;
‘Front fog-lamp’ means the lamp used to improve the illumination of the road in case of fog, snowfall, rainstorms or dust clouds;
‘Reversing lamp’ means the lamp used to illuminate the road to the rear of the vehicle and to warn other road-users that the vehicle is reversing or about to reverse;
‘Direction-indicator lamp’ means the lamp used to indicate to other road-users that the driver intends to change direction to the right or to the left;
‘Hazard-warning signal’ means the device permitting the simultaneous operation of all of a vehicle’s direction indicator lamps to draw attention to the fact that the vehicle temporarily constitutes a special danger to other road-users;
‘Stop lamp’ means the lamp used to indicate to other road-users to the rear of the vehicle that the longitudinal movement of the vehicle is intentionally retarded;
‘Rear registration plate lamp’ means the device used to illuminate the space intended to accommodate the rear registration plate; it may consist of several optical components;
‘Front position lamp’ means the lamp used to indicate the presence and the width of the vehicle when the latter is viewed from the front;
‘Rear position lamp’ means the lamp used to indicate the presence and the width of the vehicle when the width is viewed from the rear;
‘Rear fog-lamp’ means the lamp used to make the vehicle more easily visible from the rear in dense fog;
‘Parking lamp’ means the lamp used to draw attention to the presence of a stationary vehicle in a built-up area. In such circumstances, it replaces the front and rear position lamps;
‘End-outline marker lamp’ means the lamp fitted to the extreme outer edge as close as possible to the top of the vehicle and intended clearly to indicate the vehicle’s overall width. This signal is intended, for certain vehicles, to complement the vehicle’s front and rear position lamps by drawing particular attention to its bulk;
‘Work lamp’ means a device for illuminating a working area or process;
‘Retro-reflector’ means a device used to indicate the presence of a vehicle by reflection of light emanating from a light source unconnected with the vehicle, the observer being situated near that source. For the purposes of this Annex, the following are not considered as retro-reflectors:
retro-reflecting number plates,
other plates and retro-reflecting signals which shall be used to comply with a Contracting Party’s specifications for use as regards certain categories of vehicles or certain methods of operation.
‘Side marker lamp’ means a lamp used to indicate the presence of the vehicle when viewed from the side;
‘Daytime running lamp’ means a lamp facing in a forward direction used to make the vehicle more easily visible when driving during daytime;
‘Cornering lamp’ means a lamp used to provide supplementary illumination of that part of the road which is located near the forward corner of the vehicle at the side towards which the vehicle is going to turn;
‘Exterior Courtesy lamp’ means a lamp used to provide supplementary illumination to assist the entry and exit of the vehicle driver and passenger or in loading operations.
‘Manoeuvring lamp’ means a lamp used to provide supplementary illumination to the side of the vehicle to assist during slow manoeuvres.
‘Adaptive front lighting system’ means a lighting device, type-approved in accordance with UNECE Regulation No. 123, as referenced in Annex I, providing beams with differing characteristics for automatic adaptation to varying conditions of use of the dipped-beam (passing-beam) and, if applicable, the main-beam (driving-beam).
‘Illuminating surface’ means the orthogonal projection of the full aperture of the reflector, in the case of the main-beam headlamp with reflector, dipped-beam headlamp with reflector, front fog-lamp with reflector, or in the case of headlamps with an ellipsoidal reflector of the projection lens, on a transverse plane. If the light emitting surface of the lamp extends over part only of the full aperture of the reflector, the projection of that part only is taken into account.
In the case of a dipped-beam headlamp, the illuminating surface is limited by the apparent trace of the cut-off on to the lens. If the reflector and lens are adjustable relative to one another, the mean adjustment should be used.
‘Illuminating surface’ means the orthogonal projection of the lamp in a plane perpendicular to its axis of reference and in contact with the exterior light-emitting surface of the lamp, this projection being bounded by the edges of screens situated in this plane, each allowing only 98 % of the total luminous intensity of the light to persist in the direction of the axis of reference in the case of rear position lamp, parking lamp, and of main-beam headlamp, dipped-beam headlamp, front fog-lamp, which are without reflector.
In the case of a light-signalling device whose illuminating surface encloses either totally or partially the illuminating surface of another function or encloses a non-lighted surface, the illuminating surface may be considered to be the light emitting surface itself.
‘Illuminating surface’ of a retro-reflector or of a signalling panel or of a signalling foil means, as declared by the applicant during the component approval procedure for the retro-reflectors, the orthogonal projection of a retro-reflector in a plane perpendicular to its axis of reference and delimited by planes contiguous to the declared outermost parts of the retro-reflectors’ optical system and parallel to that axis. For the purposes of determining the lower, upper and lateral edges of the device, only horizontal and vertical planes shall be considered.
‘Exterior light-emitting surface’ means the part of the exterior surface of the transparent lens that encloses the lighting or light-signalling device and allows it to emit light.
‘Apparent surface’ for a defined direction of observation, means the orthogonal projection of either the boundary of the illuminating surface projected on the exterior surface of the lens or the light-emitting surface in a plane perpendicular to the direction of observation and tangential to the most exterior point of the lens.
‘Axis of reference’ means the characteristic axis of the light signal determined by the manufacturer of the lamp for use as the direction of reference (H = 0°, V = 0°) for photometric measurements and when fitting the lamp on the vehicle.
‘Centre of reference’ means the intersection of the axis of reference with the exterior light-emitting surface, specified by the manufacturer of the lamp;
‘Angles of geometric visibility’ means the angles which determine the field of the minimum solid angle in which the apparent surface of the lamp is visible. That field of the solid angle is determined by the segments of the sphere of which the centre coincides with the centre of reference of the lamp and the equator is parallel with the ground. These segments are determined in relation to the axis of reference. The horizontal angles β correspond to the longitude and the vertical angles α to the latitude.
‘Extreme outer edge’ on either side of the vehicle means the plane parallel with the median longitudinal plane of the vehicle and coinciding with its lateral outer edge, disregarding the projection:
of tyres near their point of contact with the ground and connections for tyre-pressure gauges and tyre inflating/deflating devices/ducts;
of any anti-skid devices which may be mounted on the wheels;
of rear-view mirrors;
of side direction indicator lamps, end-outline marker lamps, front and rear position lamps, parking lamps and side retro-reflectors;
of customs seals affixed to the vehicle and devices for securing and protecting such seals.
‘Overall width’ means the distance between the two vertical planes defined in the definition of the extreme outer edge, above.
‘A single lamp’ means:
a device or part of a device having one lighting or light-signalling function, one or more light source(s) and one apparent surface in the direction of the reference axis, which may be a continuous surface or composed of two or more distinct parts; or
any assembly of two independent lamps, whether identical or not, having the same function, both approved as type ‘D’ lamp and installed so that:
the projection of their apparent surfaces in the direction of the reference axis occupies not less than 60 % of the smallest quadrilateral circumscribing the projections of the said apparent surfaces in the direction of the reference axis; or
the distance between two adjacent/tangential distinct parts does not exceed 15 mm when measured perpendicularly to the reference axis; or
any assembly of two independent retro-reflectors, whether identical or not, that have been approved separately and are installed in such a way that:
the projection of their apparent surfaces in the direction of the reference axis occupies not less 60 % of the smallest quadrilateral circumscribing the projections of the said apparent surfaces in the direction of the reference axis; or
the distance between two adjacent/tangential distinct parts does not exceed 15 mm when measured perpendicularly to the reference axis.
‘Two lamps’ means a single light- emitting surface in the shape of a band or strip if such band or strip is placed symmetrically in relation to the median longitudinal plane of the vehicle, extends on both sides to within at least 0,4 m of the extreme outer edge of the vehicle, and is not less than 0,8 m in length; the illumination of such surface shall be provided by not less than two light sources placed as close as possible to its ends; the light-emitting surface may be constituted by a number of juxtaposed elements on condition that the projections of the several individual light-emitting surfaces on a transverse plane occupy not less than 60 % of the area of the smallest rectangle circumscribing the projections of the said individual light-emitting surfaces.
‘Distance between two lamps’ which face in the same direction means the distance between the orthogonal projections in a plane perpendicular to the direction in question of the outlines of the two illuminating surfaces.
‘Optional’ means that the installation of a light-signalling device is left to the discretion of the manufacturer.
‘Operating tell-tale’ means a visual or auditory signal or any equivalent signal indicating that a device has been switched on and is operating correctly.
‘Colour of the light emitted from a device’ means the colour of the light emitted as specified in UNECE Regulation No. 48 as referenced in Annex I.
‘Conspicuity marking’ means a device intended to increase the conspicuity of a vehicle, when viewed from the side or rear or in the case of trailers, additionally from the front, by the reflection of light emanating from a light source not connected to the vehicle, the observer being situated near the source.
‘Circuit-closed tell-tale’ means a tell-tale showing that a device has been switched on but not showing whether it is operating correctly or not.
‘SMV rear marking plate’, a triangular plate with truncated corners with a characteristic pattern faced with retro-reflective and fluorescent material or devices (class 1); or with retro-reflective materials or devices only (class 2) (see e.g. UNECE Regulation No. 69 as referenced in Annex I).
‘Pair’ means the set of lamps of the same function on the left- and right hand side of the vehicle.
‘H plane’ means the horizontal plane containing the centre of reference of the lamp.
‘Lighting function’ means the light emitted by a device to illuminate the road and objects in the direction of vehicle movement.
‘Light-signalling function’ means the light emitted or reflected by a device to give to other road users visual information on the presence, identification and/or the change of movement of the vehicle.
‘Light source’ means one or more elements for visible radiation, which may be assembled with one or more transparent envelopes and with a base for mechanical and electrical connection.
A light source may also be constituted by the extreme outlet of a light guide, as part of a distributed lighting or light-signalling system not having a built-in outer lens.
‘Light emitting surface’ of a lighting device, light-signalling device or a retro-reflector means the surface as declared in the request for approval by the manufacturer of the device on the drawing.
The application for EU type-approval shall be accompanied by the documents referred to in points 2.1-2.4 in triplicate and the following particulars:
A description of the vehicle type with regard to the dimensions and exterior shape of the vehicle and the number and positioning of lighting and light-signalling devices; the vehicle type duly identified shall be specified.
A list of the devices intended by the manufacturer to form the lighting and signalling equipment; the list may include several types of device for each function; in addition, the list may include in respect of each function the additional annotation 'or equivalent devices'.
A diagram of the lighting and signalling installation as a whole, showing the position of the various devices on the vehicle.
A drawing or drawings of each lamp showing the illuminating surface of a lamp or a lighting device or a signalling lamp other than a retro-reflector or a reflex-reflector.
The light emitting surface of a lighting device, light-signalling device or a retro-reflector shall be declared according to one of the following conditions:
In the case where the outer lens is textured, the declared light emitting surface shall be all or part of the exterior surface of the outer lens.
In the case where the outer lens is non-textured the outer lens may be disregarded and the light emitting surface shall be as declared on the drawing.
An unladen vehicle fitted with a complete set of lighting and signalling equipment and representative of the vehicle type to be approved shall be submitted to the technical service conducting approval tests.
The templates of the documents referred to in points 2.1 to 2.4, to be submitted during the EU type-approval process, shall be those set out in Annex I of Implementing Regulation (EU) 2015/504.]
Each vehicle approved in accordance with the requirements set out in this Annex shall be assigned an approval number and marking, in accordance with the model set out in Annex IV of Implementing Regulation (EU) 2015/504.]
Be mounted symmetrically in relation to the median longitudinal plane;
Be symmetrical to one another in relation to the median longitudinal plane;
Satisfy the same colorimetric requirements; and
Have substantially identical photometric characteristics.
The photometric and colorimetric requirements of a lamp shall be fulfilled when all other functions with which this lamp is grouped, combined or reciprocally incorporated are switched OFF.
However, when a front or rear position lamp is reciprocally incorporated with one or more other function(s) which can be activated together with them, the requirements regarding colour of each of these other functions shall be fulfilled when the reciprocally incorporated function(s) and the front or rear position lamps are switched ON.
Stop lamps and direction-indicator lamps are not permitted to be reciprocally incorporated.
Where stop lamps and direction-indicator lamps are grouped, the following conditions shall be met:
Any horizontal or vertical straight line passing through the projections of the apparent surfaces of these functions on a plane perpendicular to the reference axis, shall not intersect more than two borderlines separating adjacent areas of different colour;
Their apparent surfaces in the direction of the reference axis, based upon the areas bounded by the outline of their light emitting surfaces, do not overlap.
Either the total area of the projection of the distinct parts on a plane tangent to the exterior surface of the outer lens and perpendicular to the reference axis shall occupy not less than 60 % of the smallest quadrilateral circumscribing the said projection, or the distance between two adjacent/tangential distinct parts shall not exceed 15 mm when measured perpendicularly to the reference axis. This requirement shall not apply to a retro-reflector.
In the case of interdependent lamps, the distance between adjacent apparent surfaces in the direction of the reference axis does not exceed 75 mm when measured perpendicularly to the reference axis.
Where the maximum and minimum heights above the ground clearly meet the requirements of the Regulation, the exact edges of any surface need not be determined.
Lamps shall be installed in such a way that the vehicle complies with applicable legislation concerning its maximum height.
Where the position, as regards width, clearly complies with the requirements set out in this Regulation, the exact edges of any surface need not be determined.
For the visibility of red light towards the front of a vehicle, with the exception of a red rearmost side-marker lamp, there shall be no direct visibility of the apparent surface of a red lamp if viewed by an observer moving within Zone 1 as specified in Appendix 1;
For the visibility of white light towards the rear, with the exception of reversing lamps and white side conspicuity markings fitted to the vehicle, there shall be no direct visibility of the apparent surface of a white lamp if viewed by an observer moving within Zone 2 in a transverse plane situated 25 m behind the vehicle (see Appendix 1);
In their respective planes, the zones 1 and 2 explored by the eye of the observer are bounded:
In height, by two horizontal planes 1 m and 2,2 m respectively above the ground;
In width, by two vertical planes which, forming to the front and to the rear respectively an angle of 15° outwards from the vehicle's median longitudinal plane, pass through the point or points of contact of vertical planes parallel to the vehicle's median longitudinal plane delimiting the vehicle's overall width; if there are several points of contact, the foremost shall correspond to the forward plane and the rearmost to the rearward plane.
This condition does not apply:
When front and rear position lamps are switched ON, as well as side-marker lamps when combined or reciprocally incorporated with said lamps, as parking lamps;
To front position lamps when their function is substituted under point 5.13.1.
Their electrical connections are such that in case of failure of any of these lighting devices the front position lamps are automatically re-activated; and
The substituting lamp/function meets, for the respective position lamp, the requirements set out in points 6.8.1. to 6.8.6., and
appropriate evidence demonstrating compliance with the requirements set out in point 5.13.1.2 is provided in the test reports of the substituting lamp.
main-beam headlamp: white;
dipped-beam headlamp: white;
front fog lamp: white or selective yellow;
reversing lamp: white;
direction-indicator lamp: amber;
hazard warning signal: amber;
stop lamp: red;
rear registration plate lamp: white;
front position lamp: white;
rear position lamp: red;
rear fog lamp: red;
parking lamp: white in front, red at the rear, amber if reciprocally incorporated in the side direction indicator lamps or in the side-marker lamps;
side-marker lamp: amber; however, the rearmost side-marker lamp can be red if it is grouped or combined or reciprocally incorporated with the rear position lamp, the rear end-outline marker lamp, the rear fog lamp, the stop lamp or is grouped or has part of the light emitting surface in common with the rear retro-reflector;
end-outline marker lamp: white in front, red at the rear;
daytime running lamp: white;
rear retro-reflector, non-triangular: red;
rear retro-reflector, triangular: red;
front retro-reflector, non-triangular: white or colourless;
side retro-reflector, non- triangular: amber; however the rearmost side retro-reflector can be red if it is grouped or has part of the light emitting surface in common with the rear position lamp, the rear end outline marker lamp, the rear fog lamp, the stop-lamp, the red rearmost side-marker lamp or the rear retro-reflector, non- triangular;
cornering lamp: white;
conspicuity marking: white or yellow to the side; red or yellow to the rear;
exterior courtesy lamp: white;
manoeuvring lamp: white.
The absence of power for manipulating the lamp;
A break, impedance, or short-circuit to earth in the electrical circuit, defects in the hydraulic or pneumatic leads, Bowden cables, solenoids or other components controlling or transmitting the energy intended to activate the concealment device.
These lamps remain attached to the vehicle when their position is altered;
These lamps shall be capable of being locked in the position required by traffic conditions. Locking shall be automatic.
To determine the lower, upper and lateral limits of the illuminating surface only screens with horizontal or vertical edges shall be used to verify the distance to the extreme edges of the vehicle and the height above the ground.
For other applications of the illuminating surface, e.g. distance between two lamps or functions, the shape of the periphery of this illuminating surface shall be used. The screens shall remain parallel, but other orientations are allowed to be used.
Width: The outer edges of the illuminating surface shall in no case be closer to the extreme outer edge of the vehicles than the outer edges of the illuminating surface of the dipped-beam headlamps.
Height: No individual specifications.
Length: At the front of the vehicle. This requirement shall be deemed to be satisfied if the light emitted does not cause discomfort to the driver either directly or indirectly through the rear-view mirrors and/or other reflecting surfaces of the vehicle.
Apart from the devices necessary to maintain correct adjustment and when there are two pairs of main-beam headlamps, one pair, consisting of headlamps functioning as main-beam headlamp only, may swivel, according to the angle of lock on the steering, about an approximately vertical axis.
The dipped beams may remain switched on at the same time as the main beams.
The aggregate maximum intensity of the main beams which can be switched on simultaneously shall not exceed 430 000 cd, which corresponds to a reference value of 100.
This maximum intensity shall be obtained by adding together the individual maximum reference marks which are indicated on the several headlamps. The reference mark ‘10’ shall be given to each of the headlamps marked ‘R’ or ‘CR’.
Width: No individual specifications.
Height:
Minimum 500 mm; this value may be reduced to 350 mm for vehicles with a maximum width not exceeding 1 300 mm.
Maximum 1 500 mm
The above value may be increased to 2 500 m where the shape, structure, design or operational conditions of the vehicle prevent compliance with the 1 500 mm value.
In the case of vehicles equipped for the fitting of portable devices at the front, two dipped-beam headlamps in addition to the lamps positioned according to the requirements of points 6.2.4.2.1-6.2.4.2.3 shall be allowed at a height not exceeding 4 000 mm if the electrical connections are such that two pairs of dipped-beam headlamps cannot be switched on at the same time.
Length: As near to the front of the vehicle as possible; however, the light emitted shall not in any circumstances cause discomfort to the driver either directly or indirectly through the rear-view mirrors and/or other reflecting surfaces of the vehicle.
:
Defined by angles of geometric visibility α and β.
=
15° upwards and 10° downwards,
=
45° outwards and 5° inwards.
Within this field, virtually the whole of the apparent surface of the lamp shall be visible.
The presence of partitions or other items of equipment near the headlamp shall not give rise to secondary effects causing discomfort to other road users.
If the height of the dipped-beam headlamps is equal to or greater than 500 mm and equal to or less than 1 500 mm, it shall be possible to lower the dipped beam by between 0,5 and 6 %;
The dipped-beam headlamps shall be aligned in such a way that, measured at 15 m from the lamp, the horizontal line separating the lit zone from the unlit zone is situated at a height equivalent to only half the distance between the ground and the centre of the lamp.
These manually adjustable devices shall be operable from the driver's seat.
Continually adjustable devices shall have reference marks indicating the loading conditions that require adjustment of the dipped-beam.
The dipped-beam headlamps may remain switched on at the same time as the main beam headlamps.
In the case where the pair of additional dipped-beam headlamps is installed (as in point 6.2.2), electrical connections shall be such that two pairs of dipped- beam headlamps are never switched on at the same time.
Width: No individual specifications.
Height: No less than 250 mm above the ground. No point on the illuminating surface shall be higher than the highest point on the illuminating surface of the dipped-beam headlamp.
Length: As near to the front of the vehicle as possible; however, the light emitted shall not in any circumstances cause discomfort to the driver either directly or indirectly through the rear-view mirrors and/or other reflecting surfaces of the vehicle.
:
Defined by angles of geometric visibility α and β.
=
5° upwards and downwards;
=
45° outwards and 5° inwards.
They shall be directed forwards without causing undue dazzle or discomfort to oncoming drivers and other road users.
Width: No individual specifications.
Height: Not less than 250 mm and not more than 1 200 mm above the ground.
However, if the shape, structure, design or operational conditions of the vehicle makes it impossible to keep the lamp within 1 200 mm it is allowed to increase the height up to 4 000 mm.
In the latter case the lamp shall be installed with an downwards inclination of at least 3° for a mounting height larger than 2 000 mm and not more than 3 000 mm and at least 6° for a mounting height larger than 3 000 mm and not more than 4 000 mm.
No inclination is needed for mounting height up to 2 000 mm.
Length: At the back of the vehicle.
:
Defined by angles of geometric visibility α and β.
=
15° upwards and 5° downwards;
=
45° to right and to left if there is only one lamp;
=
45° outwards and 30° inwards if there are two lamps.
either the engine is running,
or one of the devices controlling the starting and stopping of the engine is in such a position that operation of the engine is possible.
Arrangement A shall be allowed only on tractors whose overall length does not exceed 4,60 m and in the case of which the distance between the outer edges of the illuminating surfaces is not more than 1,60 m.
Arrangements B, C and D shall apply to all tractors.
For trailers and towed machines category 2 lamps shall be used.
Vehicles may be equipped with additional direction-indicator lamps.
Two front direction-indicator lamps (category 1, 1a or 1b),
Two rear direction-indicator lamps (category 2a).
These lamps may be independent, grouped or combined.
Two front direction-indicator lamps (category 1, 1a or 1b),
Two repeating side direction-indicator lamps (category 5),
Two rear direction-indicator lamps (category 2a).
The front and repeating side lamps may be independent, grouped, or combined.
Two front direction-indicator lamps (category 1, 1a or 1b),
Two rear direction-indicator lamps (category 2a),
Two repeating side indicator lamps (category 5)
Two front direction-indicator lamps (category 1, 1a or 1b),
Two rear direction-indicator lamps (category 2a).
For trailers and towed machines:
Two rear direction-indicator lamps (category 2).
Width: Except in the case of category 1 direction indicator lamps of arrangement C and for additional direction indicator lamps, the edge of the illuminating surface furthest from the median longitudinal plane of the vehicle shall not be more than 400 mm from the extreme outer edge of the vehicle. The distance between the inner edges of the two illuminating surfaces of a pair of lamps shall be not less than 500 mm.
Where the vertical distance between the rear direction-indicator lamp and the corresponding rear position lamp is not more than 300 mm, the distance between the extreme outer edge of the vehicle and the outer edge of the rear direction-indicator lamp shall not exceed by more than 50 mm the distance between the extreme outer edge of the vehicle and the outer edge of the corresponding rear position lamp.
For front direction-indicator lamps the illuminating surface should be not less than 40 mm from the illuminating surface of the dipped-beam headlamps or front fog lamps, if any.
A smaller distance is permitted if the luminous intensity in the reference axis of the direction-indicator lamp is equal to at least 400 cd.
Height: Above the ground not less than 400 mm and not more than 2 500 mm and up to 4 000 mm for additional direction-indicator lamps.
For vehicles with a maximum width not exceeding 1 300 mm not less than 350 mm above the ground.
Length: The distance between the centre of reference of illuminating surface of the category 1 indicator (arrangement B), category 5 indicator (arrangement B and C) and the transverse plane which marks the forward boundary of the tractor's overall length normally shall not exceed 1 800 mm. If the structure of the tractor makes it impossible to keep to the minimum angles of visibility, this distance may be increased to 2 600 mm.
:
:
See Appendix 2.
:
15° above and below the horizontal.
The vertical angle below the horizontal may be reduced to 10° in the case of side repeating direction-indicator lamps of arrangements B and C if their height is less than 1 900 mm. The same applies in the case of direction-indicator lamps in category 1 of arrangements B and D.
If it is optical, it shall be a green flashing light which, in the event of the malfunction of any of the direction-indicator lamps other than the repeating side direction-indicator lamps, is either extinguished, or remains alight without flashing, or shows a marked change of frequency.
If it is entirely auditory, it shall be clearly audible and shall show a marked change of frequency in the event of any malfunction.
If a tractor is equipped to tow a trailer, it shall be equipped with a special optical operating tell-tale for the direction indicator lamps on the trailer unless the tell-tale of the drawing vehicle allows the failure of any one of the direction-indicator lamps on the tractor combination thus formed to be detected.
If a tractor is authorised to tow a trailer, the control of the direction-indicators on the tractor shall also operate the indicators of the trailer.
In the event of failure, other than a short circuit, of one direction-indicator, the others shall continue to flash but the frequency under this condition may be different from that specified.
As specified in the corresponding headings of point 6.5.
S1 or S2 of devices as described in UNECE Regulation No 7: tractors and vehicles of R- and S-categories shall be equipped with such stop lamps.
S3 or S4 of devices as described in UNECE Regulation No 7: tractors and vehicles of R- and S-categories may be equipped with such stop lamps.
Except in the case where a category S3 or S4 device is installed, two optional category S1 or S2 devices may be installed on vehicles.
Only, when the median longitudinal plane of the vehicle is not located on a fixed body panel but separates one or two movable parts of the vehicle (e.g. doors), and lacks sufficient space to be equipped with a single device of the S3 or S4 category on the median longitudinal plane above such movable parts, either:
two devices of the S3 or S4 category type ‘D’ may be installed, or
one device of the S3 or S4 category may be installed offset to the left or to the right of the median longitudinal plane.
Width:
:
The distance in between the inner edges of the apparent surfaces in the direction of the reference axes shall be not less than 500 mm apart. This distance may be reduced to 400 mm if the overall width of the vehicle is less than 1 400 mm.
:
For S3 or S4 category devices: the centre of reference shall be situated on the median longitudinal plane of the vehicle. However, in the case where the two devices of the S3 or S4 category are installed, according to point 6.7.2., they shall be positioned as close as possible to the median longitudinal plane, one on each side of this plane.
In the case where one S3 or S4 category lamp offset from the median longitudinal plane is permitted according to point 6.7.2., this offset shall not exceed 150 mm from the median longitudinal plane to the centre of reference of the lamp.
Height:
:
Above the ground, not less than 400 mm and not more than 2 500 mm and up to 4 000 mm for optional stop lamps.
:
Above the mandatory stop lamps and in the horizontal plane tangential to the lower edge of the apparent surface of a S3 or S4 category device and above the horizontal plane tangential to the upper edge of the apparent surface of S1 or S2 categories devices.
Vehicles may be equipped with two additional devices of category S1 or S2:
Above the ground, not less than 400 mm and not more than 4 000 mm
Length:
:
At the rear of the vehicle.
:
No individual specification.
:
:
45° outwards and inwards.
:
15° above and below the horizontal.
The vertical angle below the horizontal may be reduced to 10° or 5° where the lamp has its H plane at or below 1 900 mm respectively 950 mm from the ground.
Width: That point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall be not more than 400 mm from the extreme outer edge of the vehicle. The clearance between the respective inner edges of the two illuminating surfaces shall be not less than 500 mm.
Height: Above the ground, not less than 400 mm and not more than 2 500 mm
In the case of vehicles equipped for the fitting of portable devices at the front, which may obscure the front position lamps, two additional front position lamps may be fitted at a height not exceeding 4 000 mm.
Length: No specifications provided that the lamps are aligned forwards and the angles of geometrical visibility specified in point 6.8.5 are complied with.
:
:
For the two front position lamps: 10° inwards and 80° outwards. However, the angle of 10° inwards may be reduced to 5° if the shape of the bodywork makes it impossible to keep to 10°. For vehicles with any overall width not exceeding 1 400 mm this angle may be reduced to 3° if the shape of the bodywork makes it impossible to keep to 10°.
:
15° above and below the horizontal. The vertical angle below the horizontal may be reduced to 10° if the height of the lamp above the ground is less than 1 900 mm, and to 5° if this height is less than 750 mm.
Width: Except as provided in point 6.9.5.1 that point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall be not more than 400 mm from the extreme outer edge of the vehicle.
The distance between the inner edges of the two illuminating surfaces shall be not less than 500 mm. This distance may be reduced to 400 mm where the overall width of the vehicle is less than 1 400 mm.
Height: Except as provided in point 6.9.5.1, above the ground not less than 400 mm and not more than 2 500 mm.
For vehicles with a maximum width not exceeding 1 300 mm above the ground not less than 250 mm.
Length: At the rear of vehicle. Not more than 1 000 mm from the rearmost point of the vehicle.
Parts of the vehicle that extend the rearmost point of the illuminating surface of the rear position lamps by more than 1 000 mm shall be fitted with an additional rear position lamp.
:
:
For the two rear position lamps: either 45° inwards and 80° outwards, or 80° inwards and 45° outwards.
:
15° above and below the horizontal. The angle below the horizontal may be reduced to 10° if the height of the lamp above the ground is less than 1 900 mm, and to 5° if this height is less than 750 mm.
If it is impossible to observe the above position and visibility requirements, four rear position lamps may be fitted in accordance with the following installation specifications:
Two rear position lamps shall keep within the maximum height of 2 500 mm above the ground.
A distance of at least 300 mm between interior edges of the rear position lamps shall be observed, and they shall have a vertical angle of visibility above the horizontal of 15°.
The other two shall keep within a maximum height of 4 000 mm above the ground and shall be bound by the requirements of point 6.9.4.1.
The combination of the two pairs shall meet the requirements for geometric visibility as specified in 6.9.5 above.
Width: If there is only one rear fog lamp, it shall be on the opposite side of the median longitudinal plane of the vehicle to the direction of traffic prescribed in the country of registration. In all cases the distance between the rear fog lamp and the stop lamp shall be more than 100 mm.
Height: Above the ground, not less than 400 mm and not more than 1 900 mm, or not more than 2 500 mm if the shape of the bodywork makes it impossible to keep within 1 900 mm.
Length: At the rear of vehicle
:
:
25° inwards and outwards.
:
5° above and below the horizontal.
If the front fog lamps exist, the extinguishing of the rear fog lamp shall be possible independently from that of the front fog lamps.
Width: That point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall not be more than 400 mm from the extreme outer edge of the vehicle. Furthermore, in the case of a pair of lamps, the lamps shall be on the side of the vehicle.
Height: Above the ground, not less than 400 mm and not more than 2 500 mm.
Length: No individual specifications.
:
:
45° outwards, towards the front and towards the rear.
:
15° above and below the horizontal. The vertical angle below the horizontal may be reduced to 10° if the height of the lamp above the ground is less than 1 500 mm; and to 5° if this height is less than 750 mm.
Width: As close as possible to the extreme outer edge of the vehicle.
Height: At the greatest height compatible with the required position in width and with symmetry of the lamps.
Length: No individual specification.
:
:
80° outwards.
:
5° above and 20° below the horizontal.
There are no individual specifications for the following items 6.13.2, 6.13.3, 6.13.5 and 6.13.6.
Width: Except as provided in point 6.14.5.1, the point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall be not more than 400 mm from the extreme outer edge of the vehicle. The inner edges of the retro-reflectors shall be not less than 600 mm apart. This distance may be reduced to 400 mm where the overall width of the vehicle is less than 1 300 mm.
Height: Except as provided in point 6.14.5.1, not less than 400 mm and not more than 900 mm above the ground.
For vehicles with a maximum width not exceeding 1 300 mm above the ground not less than 250 mm.
However, the upper limit may be increased to not more than 1 200 mm if it is impossible to keep within the height of 900 mm without having to use fixing devices liable to be easily damaged or bent.
Length: No individual specifications.
:
:
30° inwards and outwards.
:
15° above and below the horizontal. The vertical angle below the horizontal may be reduced to 5° if the height of the reflector is less than 750 mm.
If it is impossible to observe the above position and visibility requirements, four retro-reflectors may be fitted in accordance with the following installation specifications:
Two retro-reflectors shall keep within the maximum height of 900 mm above the ground. However, this upper limit may be increased to not more than 1 500 mm where the shape, structure, design or operational conditions of the vehicle comply with the height of 900 mm without having to use fixing devices liable to be easily damaged or bent.
A distance of at least 300 mm between the interior edges of the rear retro-reflectors shall be observed, and they shall have a vertical angle of visibility above the horizontal of 15°.
The other two shall keep within a maximum height of 2 500 mm above the ground and shall be bound by the requirements of point 6.14.4.1.
The combination of the two pairs shall meet the requirements for geometric visibility as specified in point 6.14.5.
Width: No individual specification.
Height: Not less than 400 mm and not more than 900 mm above the ground.
However, the upper limit may be increased to not more than 1 500 mm if it is impossible to keep within the height of 900 mm without having to use fixing devices liable to be easily damaged or bent.
Length: One reflector shall be not more than 3 m from the foremost point of the vehicle, and either the same reflector or a second reflector shall be not more than 3 m from the rearmost point of the vehicle. The distance between two reflectors on the same side of the vehicle shall not exceed 6 m.
:
:
20° forwards and rearwards.
:
10° above and below the horizontal. [F5The vertical angle below the horizontal may be reduced to 5° if the height above the ground of the reflector is less than 750 mm.]
The values and position in points 6.16.2-6.16.6 shall be such that the device is able to illuminate the site of the registration plate.
Width: That point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall not be more than 400 mm from the extreme outer edge of the vehicle. On R- and S-category vehicles this distance shall be no more than 150 mm.
The distance between the inner edges of the two apparent surfaces in the direction of the reference axes shall be not less than 600 mm. This distance may be reduced to 400 mm where the overall width of the vehicle is less than 1 300 mm.
Height: Above the ground, not less than 300 mm and not more than 1 500 mm. If this is not possible due to the design the front reflectors shall be arranges as low as possible.
Length: At the front of the vehicle.
:
:
30° inwards and outwards.
:
10° above and below the horizontal. The vertical angle below the horizontal may be reduced to 5° in the case of a retro-reflector less than 750 mm above the ground.
If it is impossible to observe the above position and visibility requirements, four front retro reflectors may be fitted in accordance with the following installation specifications:
If fitted, two reflectors shall keep within the maximum height of 1 200 mm above the ground.
A distance of at least 300 mm between the interior edges of the front retro-reflectors shall be observed, and they shall have a vertical angle of visibility above the horizontal of 15°.
Width: No individual specifications.
Height: Above the ground, not less than 250 mm nor more than 2 500 mm.
Length: At least one side-marker lamp shall be fitted to the middle third of the vehicle, the foremost side-marker lamp being not further than 3 m from the front. The distance between two adjacent side-marker lamps shall not exceed 3 m. If the structure, design or the operational use of the vehicle makes it impossible to comply with such a requirement, this distance may be increased to 4 m.
The distance between the rearmost side-marker lamp and the rear of the vehicle shall not exceed 1 m.
[F5However, for vehicles the length of which does not exceed 6 m and for chassis-cabs, it is sufficient to have one side-marker lamp fitted within the first third or within the last third of the vehicle length. For tractors, one side-marker lamp fitted within the middle third of the vehicle length is also sufficient.]
[F3The side marker lamp may be part of the light emitting surface in common with the side retro-reflector.]
:
45° to the front and to the rear; however, this value can be reduced to 30°.
:
10° above and below the horizontal. The vertical angle below the horizontal may be reduced to 5° in the case of a side-marker lamp less than 750 mm above the ground.
Rearmost side-marker lamps shall be amber if they flash with the rear direction-indicator lamp.
In the case of tractors equipped for the fitting of portable devices at the front, two daytime running lamps (DRLs) in addition to the lamps mentioned in point 6.19.2 shall be allowed at a height not exceeding 4 000 mm if the electrical connections are such that two pairs of DRLs cannot be switched on at the same time.
:
outwards 20° and inwards 20°.
:
upwards 10° and downwards 10°.
The daytime running lamps shall switch OFF automatically when the front fog lamps or headlamps are switched ON, except when the latter are used to give intermittent luminous warnings at short intervals.
Furthermore, any of the lamps referred to in point 5.12 may be switched ON when the daytime running lamps are switched ON.
However, no point on the apparent surface in the direction of the reference axis shall be higher than the highest point on the apparent surface in the direction of the reference axis of the dipped-beam headlamp.
:
30° to 60° outwards.
:
10° upwards and downwards.
The cornering lamps shall be so connected that they cannot be activated unless the main-beam headlamps or the dipped-beam headlamps are switched ON at the same time.
The cornering lamp on one side of the vehicle may only be switched ON automatically when the direction-indicators on the same side of the vehicle are switched ON and/or when the steering angle is changed from the straight-ahead position towards the same side of the vehicle.
The cornering lamp shall be switched OFF automatically when the direction-indicator is switched OFF and/or the steering angle has returned in the straight-ahead position.
When the reversing lamp is switched ON, both cornering lamps may be switched on simultaneously, independently from the steering wheel or direction-indicator position. In this case, the cornering lamps shall be switched OFF when the reversing lamp is switched OFF.
:
According to Annex 15 to UNECE Regulation No 69, as referenced in Annex I.
:
No individual specifications.
:
According to Annex 15 to UNECE Regulation No 69, as referenced in Annex I.
the engine is stopped;
a driver or passenger door is opened;
a load compartment door is opened.
Point 5.11 shall be complied with in all fixed positions of use.
The technical service shall, to the satisfaction of the authority responsible for type-approval, perform a visual test to verify that there is no direct visibility of the apparent surface of the exterior courtesy lamps, if viewed by an observer moving on the boundary of a zone on a transverse plane 10 m from the front of the vehicle, a transverse plane 10 m from the rear of the vehicle, and two longitudinal planes 10 m from each side of the vehicle; these four planes to extend from 1 m to 3 m above and perpendicular to the ground as shown in Annex 14 to UNECE Regulation No 48, as referenced in Annex I.
This requirement shall be verified by a drawing or simulation.
The manoeuvring lamp(s) shall be activated automatically for slow manoeuvres up to 10 km/h provided that one of the following conditions is fulfilled:
prior to the vehicle being set in motion for the first time after each manual activation of the propulsion system; or
reverse gear is engaged; or
a camera-based system which assists parking manoeuvres is activated.
The manoeuvring lamps shall be automatically switched off if the forward speed of the vehicle exceeds 10 km/h and they shall remain switched off until the conditions for activation are met again.
Width: Except as provided in point 6.25.5.1, the point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall be not more than 400 mm from the extreme outer edge of the vehicle. The inner edges of the retro-reflectors shall be not less than 600 mm apart. This distance may be reduced to 400 mm where the overall width of the vehicle is less than 1 300 mm.
Height: Except as provided in point 6.25.5.1, not less than 400 mm and not more than 1 500 mm above the ground.
Length: No individual specifications.
:
:
30° inwards and outwards.
:
15° above and below the horizontal. The vertical angle below the horizontal may be reduced to 5° if the height of the reflector is less than 750 mm.
If it is impossible to observe the above position and visibility requirements, four retro-reflectors may be fitted in accordance with the following installation specifications:
Two retro-reflectors shall keep within the maximum height of 900 mm above the ground. However, this upper limit may be increased to not more than 1 200 mm if it is impossible to keep within the height of 900 mm without having to use fixing devices liable to be easily damaged or bent.
A distance of at least 300 mm between the interior edges of the reflectors shall be observed, and they shall have a vertical angle of visibility above the horizontal of 15°.
[F1The other two retro-reflectors shall keep within a maximum height of 2 500 mm above the ground and shall comply with point 6.25.5.1.]
Mandatory on vehicles with a total width of more than 2,55 m.
Optional on vehicles with a total width not exceeding 2,55 m.]
Two or four (Appendix 3).
The panels or foils shall be arranged in a way that their stripes shall run under 45° outwards and downwards.
Width:
That point on the illuminating surface which is farthest from the vehicle’s median longitudinal plane shall not be more than 100 mm from the extreme outer edge of the vehicle. This value may be increased if the shape of the bodywork makes it impossible to keep within 100 mm.
Height:
No individual specifications.
Length:
No individual specifications.
No individual specifications.
Towards the front and the rear.
The value 10° given for the inward angle of visibility of the front indicator may be reduced to 3° for vehicles with an overall width not exceeding 1 400 mm.
| Dimensions (mm) | |||
| Signalling panel or foil | a (mm) | b (mm) | Surface (cm2) |
|---|---|---|---|
| Form A | 423 | 423 | 1 790 |
| Form B | 282 | 282 | 795 |
| Form R1 | 282 | 423 | 1 193 |
| Form R2 | 423 | 282 | |
| Form L1 | 141 | 846 | 1 193 |
| Form L2 | 846 | 141 | |
| Form K1 | 141 | 423 | 596 |
| Form K2 | 423 | 141 | |
Deviations from the specified formats are permitted, if the surface of the unspecified formats contains at least 3 basic squares. The number of signalling panels or foils for each effective direction to the front and the rear are specified in Table 2.
Number of signalling panels or foils for each effective direction
| Signalling panel or foil | Number for each effective direction |
|---|---|
| Form A | 2 |
| Form B | 2 |
| Form R1 | 2 |
| Form R2 | |
| Form L1 | 2 |
| Form L2 | |
| Form K1 | 4 |
| Form K2 |
Signalling panels or foils of Form A may be combined with lamps, if the surface of the boards covered by the lamps does not exceed 150 cm2.
White according to point 2.29.1 of UNECE Regulation No 48, as referred to in Annex I.
Red according to point 2.29.4 of UNECE Regulation No 48.
The photometric requirements set out in Annex 7 to UNECE Regulation No. 69, as referenced in Annex I, or in Annex 7 to UNECE Regulation No 104, as referenced in Annex I, apply.
Panels or foils of Form B shall comply with Annex 7 to UNECE Regulation No 104, Class C.
Signalling panels which comply with the requirements set out in this Regulation are marked with the number of this Regulation and the name of the manufacturer.
For the purposes of this Annex:
[F1Definitions for the protection of drive components, in accordance with the requirements laid down in Article 20 of Commission Delegated Regulation (EU) No 1322/2014 (9) , are valid for this Annex.]
‘Interior fittings’ mean the interior parts of the passenger compartment other than the interior rear-view mirrors and include
the layout of the controls;
the roof;
power-operated windows, roof panel and partition systems.
‘Level of the instrument panel’ means the line defined by the points of contact of vertical tangents to the instrument panel.
‘Power-operated windows’ means windows which are closed by power supply of the vehicle.
‘Opening’ is the maximum unobstructed aperture between the upper edge or the leading edge, depending on the closing direction, of a power-operated window or partition or roof panel and the vehicle structure which forms the boundary of the window, partition or roof panel, when viewed from the interior of the vehicle or, in the case of partition system, from the rear part of the passenger compartment.
Any metal support fittings shall have no protruding edges.
The parts that can be contacted by a hemisphere with a diameter of 165 mm, as described in point 3.2.1, when approaching along the radius of zone A in Figure 1, shall be rounded to a radius of curvature of not less than 2,5 mm. [F2This requirement shall not apply to parts of control devices and of casings between their switches, which protrude less than 5 mm, but the outward facing angles of such parts shall be blunted, save where such parts protrude less than 1,5 mm.]
Window winders, if fitted, may project 35 mm from the surface of the panel.
Requirements of points 1.1.3.1, 1.1.3.2 and 1.1.3.3 do not apply to components located beyond the steering wheel, as referenced from the apex of a cone, this apex being the centre of zone A in Figure 1, and the rim of the steering wheel being the generatrix of that cone.
The lower edge of the instrument panel shall be rounded to a radius of curvature of not less than 19 mm.
Switches, pull-knobs, etc., made of rigid material, which, measured in accordance with the method described in 3 from 3,2 mm to 9,5 mm from the panel, shall have a cross-sectional area of not less than 2 cm2, measured 2,5 mm from the point projecting furthest, and shall have rounded edges with a radius of curvature of not less than 2,5 mm.
If these components project by more than 9,5 mm from the surface of the instrument panel, they shall be designed and constructed with a cross-section of not less than 6,50 cm2 in area situated not more than 6,5 mm from the point of maximum projection.
Components mounted on the roof, if fitted, but which are not part of the roof structure, such as grab handles, lights and ventilation openings, etc., shall have a radius of curvature of not less than 3,2 mm and, in addition, the width of the projecting parts shall not be less than the amount of their downward projection.
In the case of a projection consisting of a component made of non-rigid material of less than 60 Shore A hardness mounted on a rigid support, the requirements of points 1.1.4.2-1.1.4.4 shall apply only to the rigid support.
The requirements set out in this section shall apply to fittings not mentioned in points 1.1.2-1.1.6 which, in accordance with the requirements set out in points 1.1.1 to 1.1.6 and according to their location in the vehicle, are capable of being contacted by the occupants. If such parts are made of a material softer than 60 Shore A hardness and mounted on one or more rigid supports, the requirements in question shall apply only to those rigid supports.
[F1If the panels and components, etc., are covered with materials softer than 60 Shore A hardness, the procedure for the measuring of projections described in the first paragraph shall apply only after the removal of such materials.]
The projection of switches, pull-knobs, etc., situated in the reference area shall be measured by using the test apparatus and procedure described below:
The apparatus shall be placed on a flat surface so that its axis is perpendicular to that surface. When the flat end of the ram contacts the surface, the scale shall be set at zero.
A 10 mm strut shall be inserted between the flat end of the ram and the retaining surface; a check shall be made to ensure that the mobile index records this measurement.
Multiple controls, all of which can be contained in the headform cavity, shall be regarded as forming a single projection.
If other controls prevent normal testing by contacting the headform, they shall be removed and the test shall be conducted without them. They may subsequently be re-installed and tested in their turn with other controls that have been removed to facilitate the procedure.
Those parts (switches, pull-knobs etc.) which can be contacted by using the apparatus and procedure described below shall be considered as being likely to be contacted by the knees of an occupant:
The apparatus may be placed in any position below the instrument panel so that:
the plane XX' remains parallel to the median longitudinal plane of the vehicle,
the axis X can be rotated above and below the horizontal through angles up to 30°.
In carrying out the test referred to in this point, all materials of less than 60 Shore A hardness shall be removed.
Head restraints, if fitted shall comply with the provisions of UNECE Regulation No 25, as referenced in Annex I.
The requirements laid down in Article 21 of Delegated Regulation (EU) No 1322/2014 shall apply.]
Vehicle doors, with powered windows and powered roof hatches, if fitted, shall comply with paragraphs 5.8.1 to 5.8.5 of UNECE Regulation No 21, as referenced in Annex I.
For the purposes of this Annex, the definitions in section 1 of Annex XII and in section 1 of Annex XXXIII shall apply. The following definitions shall also apply:
‘ External surface ’ means the outside of the vehicle including wheels, tracks, doors, bumpers, bonnet, access means, tanks, mudguards, exhaust system.
‘ Radius of curvature ’ means the radius of the arc of a circle which comes closest to the rounded form of the component under consideration.
‘ Extreme outer edge ’ of the vehicle means, in relation to the sides of the vehicle, the plane parallel to the median longitudinal plane of the vehicle coinciding with its outer lateral edge, account not being taken of the projection:
of tyres near their point of contact with the ground, and connections for tyre pressure gauges and tyre inflating/deflating devices/ducts;
of any anti-skid devices which may be mounted on the wheels;
of rear-view mirrors, including their support;
of side direction indicator lamps, end outline marker lamps, front and rear position (side) lamps, parking lamps, retro-reflectors, signalling panels and SMV rear marking plates;
of articulation structures on foldable ROPS of T2, C2, T3 and C3 category tractors;
of mechanical, electrical, pneumatic or hydraulic connections, and their supports on the sides of tractors.
at a height of less than 0,75 m, the parts forming only at the sides of the vehicle the extreme outer edge in each vertical plane perpendicular to the length axis of the vehicle, with the exemption of those parts with distance greater than 80 mm from the side extreme outer edge of the vehicle and towards its median longitudinal plane, when the vehicle is equipped with the tyres or set of tracks, described in point 2.1, giving the least track width; if more than one tyre or set of tracks, described in point 2.1, exist, the one giving the minimum vehicle width shall be considered;
at the sides and at a height between 0,75 and 2 m, all parts, except:
the parts that cannot be contacted by a sphere with a diameter of 100 mm, when approaching horizontally in each vertical plane perpendicular to the length axis of the vehicle; the displacement of the sphere shall not exceed 80 mm, starting from the extreme outer edge of each of the left and right side of the vehicle and towards its median longitudinal plane, when the vehicle is equipped with the tyres or set of tracks, described in point 2.1, giving the least track width; if more than one tyre or set of tracks, described in point 2.1, exist, the one giving the minimum vehicle width shall be considered;
This Annex applies to the electromagnetic compatibility of vehicles covered by Article 2 of Regulation (EU) No 167/2013. It also applies to electrical or electronic separate technical units intended to be fitted to the vehicles.
For the purposes of this Annex, the following definitions apply:
‘Electromagnetic compatibility’ means the ability of a vehicle or component(s) or separate technical unit(s) to function satisfactorily in its electromagnetic environment without introducing intolerable electromagnetic disturbances to anything in that environment;
‘Electromagnetic disturbance’ means any electromagnetic phenomenon which may degrade the performance of a vehicle or component(s) or separate technical unit(s). An electromagnetic disturbance may be electromagnetic noise, an unwanted signal or a change in the propagation medium itself;
‘Electromagnetic immunity’ means the ability of a vehicle or component(s) or separate technical unit(s) to perform without degradation of performance in the presence of specified electromagnetic disturbances;
‘Electromagnetic environment’ means the totality of electromagnetic phenomena existing at a given location;
‘Reference limit’ means the nominal level to which type-approval and conformity of production limit values are referenced;
‘Reference antenna’ for the frequency range 20 to 80 MHz: means a shortened balanced dipole being a half wave resonant dipole at 80 MHz, and for the frequency range above 80 MHz: means a balanced half wave resonant dipole tuned to the measurement frequency;
‘Broadband electromagnetic emission’ means an emission which has a bandwidth greater than that of a particular measuring apparatus or receiver;
‘Narrowband electromagnetic emission’ means an emission which has a bandwidth less than that of a particular measuring apparatus or receiver;
‘Electrical/electronic system’ means (an) electrical and/or electronic device(s) or set(s) of devices together with any associated electrical connections which form part of a vehicle but which are not intended to be type approved separately from the vehicle;
‘Electrical/electronic sub-assembly’ (ESA) means an electrical and/or electronic device or set(s) of devices intended to be part of a vehicle, together with any associated electrical connections and wiring, which performs one or more specialised functions;
‘Type of ESA’ in relation to electromagnetic compatibility means ESAs which do not differ as to the function performed or the general arrangement of the electrical and/or electronic components, if applicable.
The electromagnetic radiation generated by the vehicle representative of its type shall be measured using the method described in Part 3 at either of the defined antenna distances. The choice shall be made by the vehicle manufacturer.
The electromagnetic radiation generated by the vehicle representative of its type shall be measured using the method described in Part 4 at either of the defined antenna distances. The choice shall be made by the vehicle manufacturer.
The immunity to electromagnetic radiation of the vehicle representative of its type shall be tested by the method described in Part 5.
The electromagnetic radiation generated by the ESA representative of its type shall be measured by the method described in Part 6.
The electromagnetic radiation generated by the ESA representative of its type shall be measured by the method described in Part 7.
The immunity to electromagnetic radiation of the ESA representative of its type shall be tested by the method(s) chosen from those described in Part 8.
For vehicles fitted with tyres, the vehicle body/chassis can be considered to be an electrically isolated structure. Significant electrostatic forces in relation to the vehicle's external environment only occur at the moment of occupant entry into or exit from the vehicle. As the vehicle is stationary at these moments, no type-approval test for electrostatic discharge is deemed necessary.
Since during normal driving no external electrical connections are made to vehicles, no conducted transients are generated in relation to the external environment. The responsibility of ensuring that equipment can tolerate the conducted transients within a vehicle, for example due to load switching and interaction between systems, shall lie with the manufacturer. No type-approval test for conducted transients shall be deemed necessary.
The measuring equipment shall comply with the requirements of publication No 16-1 series of the International Special Committee on Radio Interference (CISPR).
A quasi-peak detector shall be used for the measurement of broadband electromagnetic emissions in this Part, or if a peak detector is used an appropriate correction factor shall be used depending on the spark pulse rate.
This test is intended to measure the broadband electromagnetic emissions generated by spark-ignition systems and by electric motors (electric traction motors, engines for heating or de-icing systems, fuel pumps, water pumps, etc.) permanently fitted to the vehicle.
Two alternative reference antenna distances are permissible: 10 or 3 m from the vehicle. In either case point 3 shall apply.
The results of measurements shall be expressed in dB microvolts/m (microvolt/m) for 120 kHz band width. If the actual band width B (expressed in kHz) of the measuring apparatus differs from 120 kHz, the readings taken in microvolts/m shall be converted to 120 kHz band width through multiplication by a factor 120/B.
Other measuring antennae are allowed within the test area, at a minimum distance of 10 m both from receiving antenna and the vehicle under test, provided that it can be shown that the test results will not be affected.
To ensure that there is no extraneous noise or signal of a magnitude sufficient to affect materially the measurement, measurements shall be taken before and after the main test. If the vehicle is present when ambient measurements are taken, the technical service shall ensure that any emissions from the vehicle do not affect significantly the ambient measurements, for example by removing the vehicle from the test area, removing the ignition key, or disconnecting the battery. In both of the measurements, the extraneous noise or signal shall be at least 10 dB below the limits of interference given in point 3.2.2.1 or 3.2.2.2 (as appropriate) of Part 2, except for intentional narrowband ambient transmissions.
The engine shall be running at its normal operating temperature and the transmission shall be in neutral. If for practical reasons this cannot be achieved, alternative arrangements mutually agreed between the manufacturer and the test authorities may be made.
Care shall be taken to ensure that the speed setting mechanism does not influence electromagnetic radiations. During each measurement, the engine shall be operated as follows:
| Engine type | Method of measurements | |
|---|---|---|
| Quasi peak | Peak | |
| Spark ignition | Engine speed | Engine speed |
| One cylinder | 2 500 rpm ± 10 % | 2 500 rpm ± 10 % |
| More than one cylinder | 1 500 rpm ± 10 % | 1 500 rpm ± 10 % |
Any antenna may be used provided it can be normalised to the reference antenna. The method described in CISPR publication No 12, Edition 6, Annex C may be used to calibrate the antenna.
The phase centre of the antenna shall be 3,00 ± 0,05 m above the plane on which the vehicle rests.
The phase centre of the antenna shall be 1,80 ± 0,05 m above the plane on which the vehicle rests.
The horizontal distance from the tip or other appropriate point of the antenna defined during the normalisation procedure described in point 5.1 to the outer body surface of the vehicle shall be 10,0 ± 0,2 m.
The horizontal distance from the tip or other appropriate point of the antenna defined during the normalisation procedure described in point 5.1 to the outer body surface of the vehicle shall be 3,00 ± 0,05 m.
The antenna shall be located successively on the left and right-hand sides of the vehicle, with the antenna parallel to the plane of longitudinal symmetry of the vehicle, in line with the engine mid-point (see Figure 1 in point 7) and in line with the vehicle mid-point defined as the point on the principal axis of the vehicle midway between the centres of the front and rear axles of the vehicle.
At each of the measuring points, readings shall be taken both with the antenna in a horizontal and in a vertical polarisation (see Figure 2 in point 7).
The maximum of the four readings taken in accordance with points 5.3 and 5.4 at each spot frequency shall be taken as the characteristic reading at the frequency at which the measurements were made.
Measurements shall be made throughout the 30 to 1 000 MHz frequency range. To confirm that the vehicle meets the requirements of this Part, the Testing Authority shall test at up to 13 frequencies in the range, for example 45, 65, 90, 120, 150, 190, 230, 280, 380, 450, 600, 750, 900 MHz. In the event that the limit is exceeded during the test, investigations shall be made to ensure that this is due to the vehicle and not to background radiation.
| Spot frequency(MHz) | Tolerance(MHz) |
|---|---|
| 45, 65, 90, 120, 150, 190 and 230 | ± 5 |
| 280, 380, 450, 600, 750 and 900 | ± 20 |
The tolerances apply to frequencies quoted and are intended to avoid interference from transmissions operating on or near the nominal spot frequencies during the time of measurement.
The measuring equipment shall comply with the requirements of publication No 16-1 series of the International Special Committee on Radio Interference (CISPR).
An average detector or a peak detector shall be used for the measurement of radiated narrowband electromagnetic emissions in this Annex.
The results of measurements shall be expressed in dB microvolts/m (microvolts/m).
Other measuring antennae are allowed within the test area, at a minimum distance of 10 m both from receiving antenna and the vehicle under test, provided that it can be shown that the test results will not be affected.
To ensure that there is no extraneous noise or signal of a magnitude sufficient to affect materially the measurement, ambient measurements shall be taken before and after the main test. The technical service shall ensure that any emissions from the vehicle do not affect significantly the ambient measurements, for example by removing the vehicle from the test area, removing the ignition key, or disconnecting the battery(ies). In both of the measurements, the extraneous noise or signal shall be at least 10 dB below the limits of interference given in point 3.3.2.1 or 3.3.2.2 (as appropriate) of Part 2, except for intentional narrowband ambient transmissions.
Any antenna may be used provided that it can be normalised to the reference antenna. The method described in the CISPR publication No 12, Edition 6, Annex C, may be used to calibrate the antenna.
The phase centre of the antenna shall be 3,00 ± 0,05 m above the plane on which the vehicle rests.
The phase centre of the antenna shall be 1,80 ± 0,05 m above the plane on which the vehicle rests.
The horizontal distance from the tip or other appropriate point of the antenna defined during the normalisation procedure described in point 5.1 to the outer body surface of the vehicle shall be 10,0 ± 0,2 m.
The horizontal distance from the tip or other appropriate point of the antenna defined during the normalisation procedure described in point 5.1 to the outer body surface of the vehicle shall be 3,00 ± 0,05 m.
The antenna shall be located successively on the left and right-hand sides of the vehicle with the antenna parallel to the plane of longitudinal symmetry of the vehicle and in line with the engine mid-point (see Figure 2 in point 7 of Part 3).
At each of the measuring points, readings shall be taken both with the antenna in a horizontal and in a vertical polarisation (see Figure 2 in point 7 of Part 3).
The maximum of the four readings taken in accordance with points 5.3 and 5.4 at each spot frequency shall be taken as the characteristic reading at the frequency at which the measurements are made.
Measurements shall be made throughout the 30 to 1 000 MHz frequency range. This range shall be divided into 13 bands. In each band one spot frequency may be tested to demonstrate that the required limits are satisfied. To confirm that the vehicle meets the requirements of this Part, the testing authority shall test at one such point in each of the following 13 frequency bands:
30 to 50, 50 to 75, 75 to 100, 100 to 130, 130 to 165, 165 to 200, 200 to 250, 250 to 320, 320 to 400, 400 to 520, 520 to 660, 660 to 820, 820 to 1 000 MHz.
In the event that the limit is exceeded during the test, investigations shall be made to ensure that this is due to the vehicle and not to background radiation.
This test is intended to demonstrate the immunity to degradation in the direct control of the vehicle. The vehicle shall be subject to electromagnetic fields as described in this Part. [F4 For tests with the vehicle exposed to electromagnetic radiation of frequency not exceeding 1 000 MHz, manufacturers may choose whether to apply either this Part or Annex 6 to UNECE Regulation No 10 as referenced in Annex I. For tests with the vehicle exposed to electromagnetic radiation of frequency exceeding 1 000 MHz and not exceeding 2 000 MHz, manufacturers shall apply Annex 6 to UNECE Regulation No 10 as referenced in Annex I. The vehicle shall be monitored during the tests.]
For the test described in this Part, field strengths shall be expressed in volts/m.
The test facility shall be capable of generating the field strengths over the frequency ranges defined in this Part. The test facility shall comply with legal requirements regarding the emission of electromagnetic signals.
Care shall be taken so that the control and monitoring equipment shall not be affected by radiated fields in such a way as to invalidate the tests.
Such testing may only take place if the physical construction of the chamber permits. The antenna location shall be noted in the test report.
at least 2 m horizontally from the antenna phase centre or at least 1 m vertically from the radiating elements of a TLS,
on the vehicle's centre line (plane of longitudinal symmetry),
at a height of 1,0 ± 0,05 m above the plane on which the vehicle rests or 2,0 ± 0,05 m if the minimum height of the roof of any vehicle in the model range exceeds 3,0 m,
for front illumination, either:
1,0 ± 0,2 m inside the vehicle, measured from the point of intersection of the windscreen and bonnet (see point C in Figure 1 of point 8), or
0,2 ± 0,2 m from the centre line of the front axle of the tractor, measured towards the centre of the tractor (see point D in Figure 2 of point 8),
whichever results in a reference point closer to the antenna,
for rear illumination, either:
1,0 ± 0,2 m inside the vehicle, measured from the point of intersection of the windscreen and bonnet (see point C in Figure 1 of point 8), or
0,2 ± 0,2 m from the centre line of the rear axle of the tractor, measured towards the centre of the tractor (see point D in Figure 2 of point 8),
whichever results in a reference point closer to the antenna.
The vehicle shall be exposed to electromagnetic radiation in the 20 to [F52 000] MHz frequency range.
At each test frequency, a level of power shall be fed into the field generating device to produce the required field strength at the reference point (as defined in point 5) in the test area with the vehicle absent, the level of forward power, or another parameter directly related to the forward power required to define the field, shall be measured and the results recorded. Test frequencies shall lie in the range 20 to [F52 000 MHz. Calibration shall be made, starting at 20, in steps not greater than two per cent of the previous frequency finishing at 2 000] MHz. These results shall be used for type-approval tests unless changes occur in the facilities or equipment which necessitate this procedure being repeated.
The vehicle shall then be introduced into the test facility and positioned in accordance with the requirements of point 5. The required forward power defined in point 7.1.2 at each frequency as defined in point 6.1.1 shall then be applied to the field generating device.
A suitable compact field strength measuring device shall be used to determine the field strength during the calibration phase of the substitution method.
for all field generating devices, 0,5 ± 0,05 m either side of the reference point on a line passing through the reference point and at the same height as the reference point, and perpendicular to the vehicle plane of longitudinal symmetry;
in the case of a TLS, 1,50 ± 0,05 m on a line passing through the reference point at the same height as the reference point and along the line of longitudinal symmetry.
Notwithstanding the condition set out in point 7.2.1, tests shall not be performed at chamber resonant frequencies.
[F3The vehicle shall be exposed to electromagnetic radiation in the 20 to 2 000 MHz frequency ranges in vertical polarisation.]
The maximum envelope excursion of the test signal shall equal the maximum envelope excursion of an unmodulated sine wave whose rms value in volts/m is defined in point 3.4.2 of Part 2 (see Figure 3 of this Part).
The test signal modulation shall be:
Amplitude Modulation (AM), with 1 kHz modulation and 80 % modulation depth (m = 0,8 ± 0,04) in the 20 – 1 000 MHz frequency range (as defined in Figure 3 of this part), and
Pulse Modulation (PM), with ton = 577 μs and period = 4 600 μs, in the 1 000 – 2 000 MHz frequency range, as specified in ISO 11451-1, 3rd ed., 2005 and Amd1:2008.]
The modulation depth m is defined as:
The exposure time for each test frequency shall be sufficient to allow the tested vehicle to respond under normal conditions. In any case, it must not be less than 2 seconds.]
The measuring equipment shall comply with the requirements of publication No 16-1 series of the International Special Committee on Radio Interference (CISPR).
A quasi-peak detector shall be used for the measurement of broadband electromagnetic emissions in this Part, or if a peak detector is used an appropriate correction factor shall be used depending on the interference pulse rate.
This test is intended to measure broadband electromagnetic emissions from ESAs.
The results of measurements shall be expressed in dB microvolts/m (microvolts/m), for 120 kHz band width. If the actual band width B (expressed in kHz) of the measuring apparatus differs from 120 kHz, the readings taken in microvolts/m shall be converted to 120 kHz band width through multiplication by a factor 120/B.
To ensure that there is no extraneous noise or signal of a magnitude sufficient to affect materially the measurement, measurements shall be taken before and after the main test. In both of these measurements, the extraneous noise or signal shall be at least 10 dB below the limits of interference given in point 3.5.2.1 of Part 2, except for intentional narrowband ambient transmissions.
All cables in the loom shall be terminated as realistically as possible and preferably with real loads and actuators.
If extraneous equipment is required for the correct operation of the ESA under test, compensation shall be made for the contribution it makes to the emissions measured.
Any linearly polarised antenna may be used provided it can be normalised to the reference antenna.
The phase centre of the antenna shall be 150 ± 10 mm above ground plane.
The horizontal distance from the phase centre, or tip of the antenna as appropriate, to the edge of the ground plane shall be 1,00 ± 0,05 m. No part of the antenna shall be closer than 0,5 m to the ground plane.
The antenna shall be placed parallel to a plane which is perpendicular to the ground plane and coincident with the edge of the ground plane along which the principal portion of the harness runs.
At the measuring point, readings shall be taken both with the antenna in a vertical and in a horizontal polarisation.
The maximum of the two readings taken (in accordance with point 5.3) at each spot frequency shall be taken as the characteristic reading at the frequency at which the measurements were made.
Measurements shall be made throughout the 30 to 1 000 MHz frequency range. An ESA is considered as very likely to satisfy the required limits over the whole frequency range if it satisfies them at the following 13 frequencies in the range: 45, 65, 90, 120, 150, 190, 230, 280, 380, 450, 600, 750 and 900 MHz
In the event that the limit is exceeded during the test, investigations shall be made to ensure that this is due to the ESA and not to background radiation.
| Spot frequency(MHz) | Tolerance(MHz) |
|---|---|
| 45, 65, 90, 120, 150, 190 and 230 | ± 5 |
| 280, 380, 450, 600, 750 and 900 | ± 20 |
The tolerances apply to frequencies quoted and are intended to avoid interference from transmissions operating on or near the nominal spot frequencies during the time of measurement.
Figure 2
Radiated electromagnetic emissions from an ESA view of test bench plane of longitudinal symmetry
The measuring equipment shall comply with the requirements of publication No 16-1series of the International Special Committee on Radio Interference (CISPR).
An average detector or a peak detector shall be used for the measurement of radiated narrowband electromagnetic emissions in this Part.
The results of measurements shall be expressed in dB microvolts/m (microvolts/m).
To ensure that there is no extraneous noise or signal of a magnitude sufficient to affect materially the measurement, measurements shall be taken before and after the main test. In both of these measurements, the extraneous noise or signal shall be at least 10 dB below the limits of interference given in point 3.6.2.1 of Part 2, except for intentional narrowband ambient transmissions.
The ground plane shall be a metallic sheet with a minimum thickness of 0,5 mm. The minimum size of the ground plane depends on the size of the ESA under test but shall allow for the distribution of the ESA's wiring harness and components. The ground plane shall be connected to the protective conductor of the earthing system. The ground plane shall be situated at a height of 1,0 ± 0,1 m above the test facility floor and shall be parallel to it.
Any linearly polarised antenna may be used provided it can be normalised to the reference antenna.
The phase centre of the antenna shall be 150 ± 10 mm above ground plane.
The horizontal distance from the phase centre, or tip of the antenna as appropriate, to the edge of the ground plane shall be 1,00 ± 0,05 m. No part of the antenna shall be closer than 0,5 m to the ground plane.
The antenna shall be placed parallel to a plane which is perpendicular to the ground plane and coincident with the edge of the ground plane along which the principal portion of the harness runs.
At the measuring point, readings shall be taken both with the antenna in a vertical and in a horizontal polarisation.
The maximum of the two readings taken (in accordance with point 5.3) at each spot frequency shall be taken as the characteristic reading at the frequency at which the measurements were made.
Measurements shall be made throughout the 30 to 1 000 MHz frequency range. This range shall be divided into 13 bands. In each band one spot frequency may be tested to demonstrate that the required limits are satisfied. To confirm that the ESA under test meets the requirements of this Part, the testing authority shall test one such point in each of the following 13 frequency bands:
30 to 50, 50 to 75, 75 to 100, 100 to 130, 130 to 165, 165 to 200, 200 to 250, 250 to 320, 320 to 400, 400 to 520, 520 to 660, 660 to 820, 820 to 1 000 MHz.
In the event that the limit is exceeded during the test, investigations shall be made to ensure that this is due to the ESA under test and not to background radiation.
Stripline testing: see point 11
Bulk current injection testing: see point 12
TEM cell testing: see point 13
Free field test: see point 14
For the tests described in this Part, field strengths shall be expressed in volts/m and injected current shall be expressed in milliamps.
27, 45, 65, 90, 120, 150, 190, 230, 280, 380, 450, 600, 750 and 900 MHz.
The response time of the equipment under test shall be considered and the dwell time shall be sufficient to allow the equipment under test to react under normal conditions. In any case, it shall not be less than two seconds.
The maximum envelope excursion of the test signal shall equal the maximum envelope excursion of an unmodulated sine wave whose rms value is defined in point 3.4.2 of Part 2 (see Figure 3 in point 8 of Part 5).
The test signal shall be a radio frequency sine wave, amplitude modulated by a 1 kHz sine wave at a modulation depth m of 0,8 ± 0,04.
The modulation depth m is defined as:
This test method consists of subjecting the wiring harness connecting the components in an ESA to specified field strengths.
At each desired test frequency a level of power shall be fed into the stripline to produce the required field strength in the test area with the ESA under test absent, this level of forward power, or another parameter directly related to the forward power required to define the field, shall be measured and the results recorded. These results shall be used for type-approval tests unless changes occur in the facilities or equipment which necessitate this procedure being repeated. During this process, the position of the field probe head shall be under the active conductor, centred in longitudinal, vertical and transversal directions. The housing of the probe's electronics shall be as far away from the longitudinal stripline axis as possible.
The test method allows the generation of homogeneous fields between an active conductor (the stripline 50 Ω impedance), and a ground plane (the conducting surface of the mounting table), between which part of the wiring harness may be inserted. The electronic controller(s) of the ESA under test shall be installed on the ground plane but outside the stripline with one of its edges parallel to the active conductor of the stripline. It shall be 200 ± 10 mm from a line on the ground plane directly under the edge of the active conductor.
The distance between any edge of the active conductor and any peripheral device used for measurement shall be at least 200 mm.
The wiring harness section of the ESA under test shall be placed in a horizontal attitude between the active conductor and the ground plane (see Figures 1 and 2 in point 11).
The stripline consists of two parallel metallic plates separated by 800 mm. Equipment under test is positioned centrally between the plates and subjected to an electromagnetic field (see Figures 3 and 4 in point 11).
This method can test complete electronic systems including sensors and actuators as well as the controller and wiring loom. It is suitable for apparatus whose largest dimension is less than one-third of the plate separation.
The stripline shall be housed in a screened room (to prevent external emissions) and positioned 2 m away from walls and any metallic enclosure to prevent electromagnetic reflections. RF absorber material may be used to damp these reflections. The stripline shall be placed on non-conducting supports at least 0,4 m above the floor.
A field measuring probe shall be positioned within the central one-third of the longitudinal, vertical and transverse dimensions of the space between the parallel plates with the system under test absent. The associated measuring equipment shall be sited outside the screen room.
At each desired test frequency, a level of power shall be fed into the stripline to produce the required field strength at the antenna. This level of forward power, or another parameter directly related to the forward power required to define the field, shall be used for type-approval tests unless changes occur in the facilities or equipment which necessitate this procedure being repeated.
The main control unit shall be positioned within the central one-third of the longitudinal, vertical and transverse dimensions of the space between the parallel plates. It shall be supported on a stand made from non-conducting material.
The main wiring loom and any sensor/actuator cables shall rise vertically from the control unit to the top ground plate (this helps to maximise coupling with the electromagnetic field). Then they shall follow the underside of the plate to one of its free edges where they shall loop over and follow the top of the ground plate as far as the connections to the stripline feed. The cables shall then be routed to the associated equipment which shall be sited in an area outside the influence of the electromagnetic field, for example: on the floor of the screened room 1 m longitudinally away from the stripline.
This test method allows the testing of vehicle electrical/electronic systems by exposing an ESA to electromagnetic radiation generated by an antenna.
The test shall be performed inside a semi-anechoic chamber on a bench top.
For large equipment mounted on a metal test stand, the test stand shall be considered a part of the ground plane for testing purposes and shall be bonded accordingly. The faces of the test sample shall be located at a minimum of 200 mm from the edge of the ground plane. All leads and cables shall be a minimum of 100 mm from the edge of the ground plane and the distance to the ground plane (from the lowest point of the harness) shall be 50 ± 5 mm above the ground plane. Power shall be applied to the ESA under test via an (5 μ H/50 Ω) artificial network (AN).
The phase centre of any antenna shall be 150 ± 10 mm above the ground plane on which the ESA under test rests. No parts of any antenna's radiating elements shall be closer than 250 mm to the floor of the facility.
is perpendicular to the ground plane;
bisects the edge of the ground plane and the midpoint of the principal portion of the wiring harness; and
is perpendicular to the edge of the ground plane and the principal portion of the wiring harness.
The field generating device shall be placed parallel to this plane (see Figures 8 and 9 in point 14).
For the purpose of this Part the reference point is the point at which the field strength shall be established and shall be defined as follows:
at least 1 m horizontally from the antenna phase centre or at least 1 m vertically from the radiating elements of a plate antenna;
on a plane which:
is perpendicular to the ground plane;
is perpendicular to the edge of the ground plane along which the principal portion of the wiring harness runs;
bisects the edge of the ground plane and the midpoint of the principal portion of the wiring harness; and
is coincident with the midpoint of the principal portion of the harness which runs along the edge of the ground plane closest to the antenna;
150 ± 10 mm above the ground plane.
At each desired test frequency, a level of power shall be fed into the field generating device to produce the required field strength at the reference point (as defined in point 8.3.4 in the test area with the ESA under test absent), this level of forward power, or another parameter directly related to the forward power required to define the field, shall be measured and the results recorded. These results shall be used for type-approval tests unless changes occur in the facilities or equipment which necessitates this procedure being repeated.
A suitable compact field strength measuring device shall be used to determine the field strength during the calibration phase of the substitution method.
The transverse electromagnetic mode (TEM) cell generates homogeneous fields between the internal conductor (septum) and housing (ground plane). It is used for testing ESAs (see Figure 6 in point 13).
=
Electric field (volts/metre)
=
Power flowing into cell (W)
=
Impedance of cell (50 Ω)
=
Separation distance (metres) between the upper wall and the plate (septum).
In order to maintain a homogeneous field in the TEM cell and to obtain repeatable measurement results, the test object shall not be larger than one-third of the cell inside height.
Recommended TEM cell dimensions are given in point 13, Figure 7.
The TEM cell shall be attached to a co-axial socket panel and connected as closely as possible to a plug connector with an adequate number of pins. The supply and signal leads from the plug connector in the cell wall shall be directly connected to the test object.
The external components such as sensors, power supply and control elements can be connected:
to a screened peripheral;
to a vehicle next to the TEM cell; or
directly to the screened patchboard.
Screened cables must be used in connecting the TEM cell to the peripheral or the vehicle if the vehicle or peripheral is not in the same or adjacent screened room.
This is a method of carrying out immunity tests by inducing currents directly into a wiring harness using a current injection probe. The injection probe consists of a coupling clamp through which the cables of the ESA under test are passed. Immunity tests can then be carried out by varying the frequency of the induced signals.
The ESA under test may be installed on a ground plane as in point 8.2.1 or in a vehicle in accordance with the vehicle design specification.
The injection probe shall be mounted in a calibration jig. Whilst sweeping the test frequency range, the power required to achieve the current specified in point 3.7.2.1 shall be monitored. This method calibrates the bulk current injection system forward power versus current prior to testing, and it is this forward power which shall be applied to the injection probe when connected to the ESA under test via the cables used during calibration. It should be noted that the monitored power applied to the injection probe is the forward power.
For an ESA mounted on a ground plane as in point 8.2.1 all cables in the wiring harness shall be terminated with realistic loads and actuators. For both vehicle mounted and ground plane mounted ESAs the current injection probe shall be mounted in turn around all the wires in the wiring harness to each connector and 150 ± 10 mm from each connector of the ESA under test electronic control units (ECU), instrument modules or active sensors as illustrated in point 12.
For an ESA under test mounted on a ground plane as in point 8.2.1, a wiring harness shall be connected between an artificial network (AN) and the principal electronic control unit (ECU). This harness shall run parallel to the edge of the ground plane and 200 mm minimum from its edge. This harness shall contain the power feed wire which is used to connect the vehicle battery to this ECU and the power return wire if used on the vehicle.
The distance from the ECU to the AN shall be 1,0 ± 0,1 m or shall be the harness length between the ECU and the battery as used on the vehicle, if known, whichever is the shorter. If a vehicle harness is used then any line branches which occur in this length shall be routed along the ground plane but perpendicular away from the edge of the ground plane. Otherwise the ESA under test wires which are in this length shall break out at the AN.
The following table shows the dimensions for constructing a cell with specified upper frequency limits:
| Upper frequency(MHz) | Cell form factorW: b | Cell form factorL/W | Plate separationb (cm) | SeptumS (cm) |
|---|---|---|---|---|
| 200 | 1,69 | 0,66 | 56 | 70 |
| 200 | 1,0 | 1,0 | 60 | 50 |
Manufacturers may choose whether to apply either the requirements of Parts 2 to 8 or the requirements of UNECE Regulation No 10 as referenced in Annex I or the requirements of ISO 14982: 1998.
When a tractor is type approved, the characteristics of the warning device fitted to that type of tractor shall be tested as follows:
The sound pressure level of the device when fitted to the tractor shall be measured at a point 7 metres in front of the tractor, at a site which is open and as level as possible. The engine of the tractor shall be stopped. The effective voltage shall be that laid down in paragraph 6.2.3 of UNECE Regulation No 28 as referenced in Annex I.
Measurements shall be made on the ‘A’ weighting scale of the IEC (International Electrotechnical Commission) standard.
The maximum sound pressure level shall be determined at a height between 0,5 and 1,5 metres above ground level.
The maximum value for the sound-pressure level shall be at least 93 dB(A) and at the most 112 dB(A).
Manufacturers may choose to apply either this point or point 2.
an ignition or start switch with a removable key,
a lockable cab,
a lockable cover over the ignition or start switch,
a security ignition or starting lock (e.g. key card activated),
a lockable battery disconnect switch.
At least one device shall be installed on a S-category vehicle or interchangeable towed equipment falling in R-category due to technically permissible maximum laden mass to the unladen mass equal to or greater than 3,0 to enable prevention of inadvertent or unauthorised use of such vehicles.
Such device may consist in the following:
a lockable cover over the coupling device,
a chain and padlock through the ring of the coupling device,
a wheel clamp,
a padlock in a hole in the sector of the park brake;
The Operator’s Manual shall contain information on the use of the devices installed on the vehicle.
The space for mounting shall comprise a flat or virtually flat rectangular surface with the following minimum dimensions:
either
:
520 mm
:
120 mm
or
:
255 mm
:
165 mm.
The space for mounting shall be such that, after correct fixing, the plates shall have the following characteristics:
The centre of the plate shall not be further to the right than the plane of symmetry of the vehicle. The left lateral edge of the plate shall not be further to the left than the vertical plane parallel to the plane of symmetry of the vehicle and tangent to the point where the cross section of the vehicle is at its widest.
The plate shall be perpendicular or practically perpendicular to the plane of symmetry of the vehicle.
The plate shall be vertical within a tolerance of 5°. However, where the shape of the vehicle so requires, it may be inclined to the vertical:
at not more than 30° when the surface bearing the registration number is inclined upwards, provided that the height of the upper edge of the plate is not more than 1,2 metres from the ground.
at not more than 15° when the surface bearing the registration number is inclined downwards, provided that the height of the upper edge of the plate is more than 1,2 metres from the ground.
The height of the lower edge of the plate above ground shall not be less than 0,3 metres; the height of the upper edge of the plate above ground shall not exceed 4 metres.
The heights given in points 2.3 and 2.4 shall be measured with the vehicle unladen.
[F1If the height of the upper edge of the plate from the ground surface does not exceed 1,20 m, the plate shall be visible in the whole space included within the following four planes:
the two vertical planes touching the two lateral edges of the plate and forming an angle measured outwards to the left and to the right of the plate of 30 o to the longitudinal median plane of the vehicle;
the plane touching the upper edge of the plate and forming an angle measured upwards of 15 o to the horizontal;
the horizontal plane through the lower edge of the plate.]
[F2If the height of the upper edge of the plate from the ground surface exceeds 1,20 m, the plate shall be visible in the whole space included within the following four planes:
the two vertical planes touching the two lateral edges of the plate and forming an angle measured outwards to the left and to the right of the plate of 30 o to the longitudinal median plane of the vehicle;
the plane touching the upper edge of the plate and forming an angle measured upwards of 15 o to the horizontal;
the plane touching the lower edge of the plate and forming an angle measured downwards of 15 o to the horizontal.]
[F1No structural element, even when fully transparent, shall be located in the space described in points 2.6.1 and 2.6.1a.]
For the purposes of this Annex:
‘Statutory plate’ means the plate that the manufacturer shall affix to each vehicle manufactured in conformity with the approved type as set out in Article 34 of Regulation (EU) No 167/2013 and it shall have the appropriate marking in accordance with this Annex.
‘Statutory markings’ means any mandatory markings together with the type-approval mark set out in Article 34 of Regulation (EU) No 167/2013 which, in accordance with this Annex, shall be affixed to vehicles, components or separate technical units when they are manufactured in conformity with the approved type or for its identification during the type approval processes.
The vehicle identification number is a fixed combination of characters unequivocally attributed to a particular vehicle by the manufacturer. Its purpose is to ensure that every vehicle, and in particular its type, can be clearly identified over a period of 30 years through the intermediary of the manufacturer, without a need for further reference.
The identification number shall comply with the following requirements:
The VIN shall be marked on the statutory plate, as well as on the chassis, frame or a similar structure of the vehicle when the vehicle leaves the production line.
It shall wherever possible be entered on a single line.
[F1It shall be marked on the chassis or other similar structure, where possible on the front right-hand side of the vehicle.]
It shall be hammered, punched, etched or laser-engraved directly onto an easily accessible part, preferably on the front right side of the vehicle in a way which avoids obliteration, alteration and removal.
The characters specified in the model for the EU type-approval mark set out Annex IV to Implementing Regulation (EU) 2015/504 shall be used for the markings referred to in sections 3 and 4.]
[F1Every separate technical unit or component, conforming to a type in respect of which EU separate technical unit or component type-approval has been granted in accordance with Chapter V of Regulation (EU) No 167/2013, shall bear an EU separate technical unit or component type-approval mark, pursuant to Article 34(2) of that Regulation and in accordance with Article 5 of Implementing Regulation (EU) 2015/504.] The markings shall be visible when installed on the vehicle without the need to remove any parts with the use of tools and shall be durably affixed (e.g. stamped, etched, laser inscribed, self-destructing adhesive label).
For the purposes of this Annex:
‘Length of the vehicle’ means:
the length of the vehicle measured between the vertical planes at right angles to the longitudinal axis of the vehicle and passing the outermost points thereof, but excluding:
all mirrors,
all starting handles,
all front or lateral position (side) lamps.
‘Width of the vehicle’ means:
the width of the vehicle measured between the vertical planes parallel to the longitudinal axis of the vehicle and passing through the outermost points thereof, but excluding:
any mirrors,
any direction indicators,
any front, lateral or rear position (side) lamps and any parking lamps,
any folding components such as lift-up footrests and flexible mud-flaps.
‘Height of the vehicle’ means the vertical distance between the ground and the point on the vehicle the greatest distance from the ground, excluding the aerial. When this height is determined, the vehicle must be fitted with new tyres having the greatest rolling radius, expressed by the speed radius index, specified by their manufacturer;
‘Permissible towable mass’ means the mass which a type of tractor may tow;
‘Technically permissible towable mass(es)’ means one of the following:
unbraked towable mass;
towable mass with inertia braking;
towable mass fitted with hydraulic or pneumatic braking.
Vehicles may not exceed the dimensions and masses laid down below:
The measurements intended to check these dimensions shall be carried out as follows:
with unladen mass of vehicle in running order,
on a flat horizontal surface,
with the vehicle stationary and, if applicable, the engine switched off,
with the new tyres at the normal pressure recommended by the manufacturer,
with doors and windows closed, if applicable,
with the steering wheel in the straight-ahead position, if applicable,
without any detachable agricultural or forestry implement attached to the vehicle and that can be detached without special tools.
length: 12 m;
width: 2,55 (ignoring the deflected part of the tyre walls at the point of contact with the ground);
The width may be increased up to 3,00 m if this is solely caused by the installation of tyres, rubber tracks or dual tyre configurations, necessary for soil protection, including spray suppression systems, provided that the width of the vehicle permanent structure is limited to 2,55 m and the type-approved vehicle is also fitted with at least one set of tyres or rubber tracks for which its width may not exceed 2,55 m.
height: 4 m.]
length: 12 m;
width: 3 m (ignoring the deflected part of the tyre walls at the point of contact with the ground);
height: 4 m.
length: 12 m;
width: 2,55 m (ignoring the deflected part of the tyre walls at the point of contact with the ground).
The width may be increased up to 3,00 m if this is solely caused by either of the following circumstances:
the use of soil protection tyres configurations, provided that the vehicle can also be fitted with at least one set of tyres where its width does not exceed 2,55 m. The structure of the vehicle necessary for transport purposes may not exceed in width 2,55 m. Where the vehicle can also be fitted with at least one set of tyres with its width not exceeding 2,55 m, the spray suppression systems, if fitted, will be such that the vehicle width is limited to 2,55 m;
the presence of tools, necessary for the functioning of the vehicle and in compliance with the provisions implementing Directive 2006/42/EC of the European Parliament and of the Council (13) . The structure of the vehicle necessary for transport purposes may not exceed in width 2,55 m;
height: 4 m.]
the technically permissible towable mass, stated by the tractor manufacturer, taking into account the requirements concerning the tractor in Annex XXXIV;
the towable mass of the mechanical coupling(s) pursuant to their component type-approval(s) in accordance with this Regulation.
[F1For the purposes of this Annex, definitions of ‘ drawbar towed vehicle ’ and ‘ rigid drawbar towed vehicle ’ , set out in Article 2 of Delegated Regulation (EU) 2015/68, shall apply.
The following definitions shall also apply:]
Definitions of ‘drawbar towed vehicle’ and ‘rigid drawbar towed vehicle’, in accordance with the requirements laid down on the basis of Article 17(2)(b) and (4) of Regulation (EU) No 167/2013, are valid for this Annex.
‘Technically permissible maximum laden mass’ means the maximum mass allocated to a vehicle on the basis of its construction features and its design performances irrespective from the load capacity of the tyres or tracks.
[F1‘ Technically permissible maximum mass per axle ’ means the mass corresponding to the maximum permissible static vertical load transmitted to the ground by the wheels of the axle or track undercarriages, on the basis of the construction features of the axle and of the vehicle and their design performances irrespective from the load capacity of the tyres or tracks.]
the results of any tests which that administration makes, in particular those in respect of braking and steering, are satisfactory;
the technically permissible maximum laden mass and the technically permissible maximum mass per axle depending on the vehicle category does not exceed the values given in Table 1.
Maximum permissible laden mass and maximum permissible mass per axle depending on the vehicle category
| a It is not necessary to establish an axle limit for vehicle categories T3 and T4.3, as they have by definition limitations on the maximum permissible laden and/or unladen mass. | ||||
| b The corresponding value for the sum of the axle maximum permissible mass is the sum of the axle weights in Annex I, points 3.1 to 3.3, to Council Directive 96/53/EC (Council Directive 96/53/EC of 25 July 1996 laying down for certain road vehicles circulating within the Community the maximum authorised dimensions in national and international traffic and the maximum authorised weights in international traffic (OJ L 235, 17.9.1996, p. 59). | ||||
| c Where the driving axle is fitted with twin tyres and air suspension or suspension recognised as being equivalent within the European Union as defined in Annex II to Directive 96/53/EC, or where each driving axle is fitted with twin tyres and the maximum weight of each axle does not exceed 9,5 t. | ||||
| d The corresponding value for the sum of the axle maximum permissible mass is the sum of the axle weights in Annex I, point 3.5, to Directive 96/53/EC. | ||||
| Vehicle category | Number of axles | Maximum permissible mass (t) | Maximum permissible mass per axle | |
|---|---|---|---|---|
| Driven axle (t) | Non-driven axle (t) | |||
| T1, T2, T4.1, T4.2 | 2 | 18 (laden) | 11,5 | 10 |
| 3 | 24 (laden) | 11,5d | 10d | |
| T1 | 4 or more | 32 (laden)c | 11,5d | 10d |
| T3 | 2 or 3 | 0,6 (unladen) | a | a |
| T4.3 | 2, 3 or 4 | 10 (laden) | a | a |
| C | N/A | 32 | N/A | N/A |
| R | 1 | N/A | 11,5 | 10 |
| 2 | 18 (laden) | 11,5 | b | |
| 3 | 24 (laden) | 11,5 | b | |
| 4 or more | 32 (laden) | 11,5 | b | |
| S | 1 | N/A | 11,5 | 10 |
| 2 | 18 (laden) | 11,5 | b | |
| 3 | 24 (laden) | 11,5 | b | |
| 4 or more | 32 (laden) | 11,5 | b | |
Where the tractor is to be fitted with ballast weights in order to meet the other requirements of EU type-approval, those ballast weights shall be supplied by the manufacturer of the tractor, be intended for fitting, and bear the manufacturer’s mark and a statement of their mass in kilograms to an accuracy of ± 5 %. Front ballast weights that have been designed for frequent removal/fitting shall leave a safety clearance of at least 25 mm for the grab handles. The method of locating the ballast weights shall be such that any inadvertent separation is avoided (e.g. in the event of tractor rollover).
Requirements on static electricity safety are the ones provided in point 3 of Annex XXV.
Fuel tanks shall be made so as to be corrosion resistant. They shall satisfy the leakage tests carried out by the manufacturer at a pressure equal to double the working pressure but in any event not less than 0,3 bar. Any excess pressure or any pressure exceeding the working pressure shall be automatically compensated by suitable devices (vents, safety valves etc.). The vents shall be designed in such a way as to prevent any fire risk. The fuel shall not escape through the fuel-tank cap or through the devices provided to compensate excess pressure even if the tank is completely overturned: a drip shall be tolerated.
The fuel supply pipework and the filler orifice shall be installed outside the cab.
The fuel tank and its accessory parts shall be designed and installed in the vehicle in such a way that any ignition hazard due to static electricity shall be avoided.
[F1If necessary, measure(s) for charge dissipation shall be provided. However, no charge dissipation system is required for fuel tanks designed for containing a fuel with a flash point of at least 55 °C. The flash point shall be determined in accordance with ISO 2719:2002.]
The manufacturer shall demonstrate to the Technical Service the measure(s) which guarantee the fulfilling of these requirements.
Vehicles of category R covered by this Regulation shall be designed so as to provide effective protection against underrunning from the rear by vehicles of categories M 1 and N 1 (15) . They shall comply with the requirements set out in sections 2 and 3 of this Annex, shall be granted a type-approval certificate set out in Annex V to Implementing Regulation (EU) 2015/504 and the EU type-approval mark, set out in point 5.2 of Annex IV to that Regulation, shall be affixed to the rear protective structure.]
The vehicle shall be tested under the following conditions:
it shall be at rest on a level, flat, rigid and smooth surface,
the front wheels shall be in the straight-ahead position,
tyres shall be inflated to the pressure recommended by the vehicle manufacturer,
the vehicle may, if necessary to achieve the test forces required, be restrained by any method specified by the vehicle manufacturer,
if the vehicle is equipped with hydropneumatic, hydraulic or pneumatic suspension or a device for automatic levelling according to load, it shall be tested with the suspension or device in the normal running condition specified by the manufacturer.
if it satisfies the conditions set out in 2.3, or
if the ground clearance of the rear part of the unladen vehicle does not exceed 55 cm over a width which is not shorter than that of the rear axle by more than 10 cm on either side (excluding any tyre bulging close to the ground).
Where there is more than one rear axle, the width to be considered is that of the widest.
This requirement shall be satisfied at least on a line at a distance of not more than 45 cm from the rear extremity of the vehicle.
the vehicle is equipped with a special rear protective structure in accordance with the requirements of 2.4, or
the vehicle is so designed and/or equipped at the rear that, by virtue of their shape and characteristics, its component parts can be regarded as replacing the rear protective structure. Components whose combined function satisfies the requirements set out in 2.4 are considered to form a rear protective structure.
For vehicles fitted with a platform lift the fitting of the rear protective structure may be interrupted for the purposes of the mechanism. In such cases, the following shall apply:
the lateral distance between the fitting elements of the rear protective structure and the elements of the platform lift, which make the interruption necessary, may amount to no more than 2,5 cm;
the individual elements of the rear protective structure shall, in each case, have an effective surface area of at least 350 cm2;
the individual elements of the rear protective structure shall be of sufficient dimensions to comply with the requirements of paragraph 2.4.5.1, whereby the relative positions of the test points are determined. If the points P1 are located within the interruption area mentioned in 2.4a, the points P1 to be used shall be located in the middle of any lateral section of the rear protective structure;
for the area of interruption of the rear protective structure and for the purposes of the platform lift, point 2.4.1 need not apply.
It shall have the following characteristics:
the device shall be fitted as close to the rear of the vehicle as possible. When the vehicle is unladen(16) the lower edge of the device shall at no point be more than 55 cm above the ground;
[F5the width of the device shall at no point exceed the width of the rear axle measured at the outermost points of the wheels, excluding the bulging of the tyres close to the ground, nor shall it be more than 10 cm shorter on either side. Where there is more than one rear axle, the width to be considered is that of the widest. The width of the device shall not exceed in any case 2,55 m;]
the section height of the cross-member shall be not less than 10 cm. The lateral extremities of the cross-member shall not bend to the rear or have a sharp outer edge; this condition is fulfilled when the lateral extremities of the cross-member are rounded on the outside and have a radius of curvature of not less than 2,5 mm;
the device may be so designed that its position at the rear of the vehicle can be varied. In this event, there shall be a guaranteed method of securing it in the service position so that any unintentional change of position is precluded. It shall be possible for the operator to vary the position of the device by applying a force not exceeding 40 daN;
the device shall offer adequate resistance to forces applied parallel to the longitudinal axis of the vehicle, and be connected, when in the service position, with the chassis side-members or whatever replaces them.
This requirement shall be deemed to be satisfied if it is shown that both during and after the application the horizontal distance between the rear of the device and the rear extremity of the vehicle does not exceed 40 cm at any of the points P1, P2 and P3. In measuring this distance, any part of the vehicle which is more than 3 m above the ground when the vehicle is unladen shall be excluded;
points P1 are located 30 cm from the longitudinal planes tangential to the outer edges of the wheels on the rear axle; points P2, which are located on the line joining points P1, are symmetrical to the median longitudinal plane of the vehicle at a distance from each other of 70 to 100 cm inclusive, the exact position being specified by the manufacturer. The height above the ground of points P1 and P2 shall be defined by the vehicle manufacturer within the lines that bound the device horizontally. The height shall not, however, exceed 60 cm when the vehicle is unladen. P3 is the centre-point of the straight line joining points P2;
a horizontal force corresponding to 25 % of the maximum technically permissible mass of the vehicle but not exceeding 5 × 104 N shall be applied successively to both points P1 and to point P3;
a horizontal force corresponding to 50 % of the maximum technically permissible mass of the vehicle but not exceeding 10 × 104 N shall be applied successively to both points P2;
the forces specified in 2.4.5.2 and 2.4.5.3 above shall be applied separately. The order in which the forces are applied may be specified by the manufacturer;
whenever a practical test is performed to verify compliance with the abovementioned requirements, the following conditions shall be fulfilled:
the device shall be connected to the chassis side-members of the vehicle or to whatever replaces them;
the specified forces shall be applied by rams which are suitably articulated (e.g. by means of universal joints) and shall be parallel to the median longitudinal plane of the vehicle via a surface not more than 25 cm in height (the exact height shall be indicated by the manufacturer) and 20 cm wide, with a radius of curvature of 5 ± 1 mm at the vertical edges; the centre of the surface is placed successively at points P1, P2 and P3.
‘slung’ trailers and other similar trailers for the transport of logs or other very long items,
vehicles for which rear underrun protection is incompatible with their use.
Vehicles where any rear protective structure is incompatible with their rear fitted operational devices, shall be exempted from the requirement. Otherwise, the vehicle shall be fitted with a rear protective structure at its rear part that does not obstruct the function of those operational devices.
This Annex shall not apply to:
trailers specially designed and constructed for the carriage of very long loads of indivisible length, such as timber,
vehicles designed and constructed for special purposes where it is not possible, for practical reasons, to fit such lateral protection.
When tested for compliance with the technical specifications set out in point 2, the position of the vehicle shall be as follows:
on a horizontal and flat surface,
the steered wheels shall be in a straight-ahead position,
the vehicle shall be unladen,
semi-trailers shall be positioned on their supports with the loading surface horizontal.
50 mm high in the case of category R3b vehicles,
100 mm high and essentially flat in the case of R4b vehicles. Combinations of surfaces and rails shall form a continuous side guard subject, however, to the provisions of point 2.2.
Its position shall be:
[F1on a drawbar trailer: not more than 500 mm to the rear of the transverse vertical plane tangential to the rearmost part of the tyre on the wheel immediately forward of the guard;
on a rigid drawbar trailer or centre-axle trailer: in the area forward of the transverse plane passing through the centre of the front axle but not more than the front of the bodywork, if any, to ensure the normal manoeuvrability of the trailer.]
Where the forward edge lies in otherwise open space, the edge shall consist of a continuous vertical member extending over the whole height of the guard; the outer and forward faces of this member shall measure at least 50 mm rearward and be turned 100 mm inwards in the case of R3b and at least 100 mm rearwards and be turned 100 mm inwards in the case of R4b.
where the plane in point 2.7 does not cut the structure of the vehicle, the upper edge shall be level with the surface of the load-carrying platform, of 950 mm from the ground, whichever is the less;
where the plane in point 2.7 cuts the structure of the vehicle at a level more than 1,3 m above the ground, then the upper edge of the side guard shall not be less than 950 mm above the ground.
The side guard shall be considered suitable if it is capable of withstanding a horizontal static force of 1 kN applied perpendicularly to any part of its external surface by the centre of a ram the face of which is circular and flat, with a diameter of 220 mm ± 10 mm, and if the deflection of the guard under load is then not more than:
30 mm over the rearmost 250 mm of the guard, and
150 mm over the remainder of the guard.
The above requirement may be checked by means of calculations.
An extendible trailer shall comply with all of the requirements of point 2, when closed to its minimum length; when the trailer is extended, the side guards shall comply with points 2.6, 2.7 and 2.8, and with either 2.4 or 2.5 but not necessarily both; extension of the trailer shall not produce gaps in the length of the side guards;
a tank-vehicle that is a vehicle designed solely for the carriage of fluid substance in a closed tank permanently fitted to the vehicle and provided with hose or pipe connections for loading or unloading, shall be fitted with side guards which comply so far as is practicable with all the requirements of point 2; strict compliance may be waived only where operational requirements make this necessary;
On a vehicle fitted with extendible legs to provide additional stability during loading, unloading or other operations for which the vehicle is designed, the side guard may be arranged with additional gaps where these are necessary to permit extension of the legs.
Alternatively to complying with points 1.3 to 2.9 and point 4., manufacturers may choose whether to comply with points 2 and 3 and Parts I, II and III as well as Annex 3 of UNECE Regulation No 73 as referenced in Annex I.
the length does not exceed 1,4 times the front or rear track of the tractor, whichever is the larger,
[F5the width does not exceed the maximum overall width of the tractor without equipment, or 2,55 m, whichever is the narrower.]
Every tractor shall have a special device to which it shall be possible to attach a connection such as a tow-bar or a tow-rope for towing purposes.
The device shall be fitted to the front of the tractor, which shall be equipped with a coupling pin or hook.
[F1The towing device shall be of the slotted-jaw type or a winch suitable for its application. The opening at the centre of the locking pin shall be 60 mm + 0,5/– 1,5 mm and the depth of the jaw measured from the centre of the pin shall be 62 mm - 0,5 / +5 mm.]
The coupling pin shall have a diameter of 30 + 1,5 mm and be fitted with a device preventing it from leaving its seating during use. The securing device shall be non-detachable.
The tolerance of + 1,5 mm referred to above should not be regarded as a manufacturing tolerance but as a permissible variation in nominal dimensions for pins of different designs.
The correct use of the towing device shall be explained in the Operator’s manual, in accordance with the requirements laid down in Article 25 of Delegated Regulation (EU) No 1322/2014.]
For the purposes of this Annex:
‘Cyclic service’ means the condition that applies when the load on the tyre cycles between the fully loaded and the unloaded condition;
‘High and sustained torque’ means the condition that occurs due to a load on the drawbar or hitch;
‘Applicable tyre inflation pressure’ means the internal pressure of the tyre, with the tyre at ambient temperature (i.e. cold tyre pressure), recommended in conformity to the load, speed and service conditions of the vehicle. It does not include any pressure built up due to tyre usage and is expressed in kPa;
‘Maximum load rating’ means the mass which a tyre can carry when operated in conformity with requirements governing utilisation specified by the tyre manufacturer;
‘Maximum permissible mass per axle according to tyre specification’ means the mass corresponding to the maximum permissible static vertical load that can be transmitted to the ground by the wheels of the axle as restricted by the maximum load rating of tyre types that can be fitted to the vehicle as listed in the information document.
the tyre size designation;
the load capacity index (i.e. a numerical code which indicates the load the tyre can carry at the speed corresponding to the associated speed category);
the speed category symbol (i.e. a symbol which indicates the maximum speed at which the tyre can carry the load corresponding to its load index); and
the word ‘TUBELESS’ if the tyre is designed for use without an inner tube.
the manufacturer's trade name or mark;
the inflation pressure that shall not be exceeded for the purpose of bead seating during tyre mounting;
in case of implement tyres the service description (i.e. load index and speed category symbol) shall be supplemented with the indication whether it applies to ‘drive wheel’ or to ‘free rolling wheel’ or to both; and
the date of manufacture in the form of a group of four digits, the first two showing the week and the last two the year of manufacture.
The information document and information folder that shall be submitted with the application for type-approval of those tyres are specified in the models set out in Article 68(a) of Regulation (EU) No 167/2013.
A unique type-approval number, the model of which is set out in Article 68(h) of Regulation (EU) No 167/2013, shall be assigned to each type-approved tyre and a type-approval certificate, the model of which is set out in Article 68(c) of Regulation (EU) No 167/2013, shall be issued.
the tyres are in accordance with Regulation (EC) No 661/2009 of the European Parliament and of the Council(18) (i.e. type-approved according to UNECE regulations Nos 30, 54 and 117 as referenced in Annex I to this Regulation) or type-approved according to UNECE Regulation No 75, as referenced in Annex I, and
the approval authority and technical service are satisfied that the tyres fitted are suitable for the operating conditions of the vehicle. The nature of the exemption and reasons for acceptance shall be clearly stated in the test report.
the tyres are type-approved according to UNECE Regulation No 75; as referenced in Annex I, and
the approval authority and technical service are satisfied that the tyres fitted are suitable for the operating conditions of the vehicle. The nature of the exemption and reasons for acceptance shall be clearly stated in the test report.
the maximum permissible mass per axle where the axle is equipped with one tyre only;
half of the maximum permissible mass per axle where the axle is equipped with two tyres in single formation;
0,285 times the maximum permissible mass per axle where the axle is equipped with two sets of tyres in dual (twin) formation;
0,20 times the maximum permissible mass per axle where the axle is equipped with two sets of tyres in triple formation.
the tyres shall have the same overall diameter;
the tyres shall be of the same ‘category of use’, ‘structure’ and ‘speed category symbol’ as defined in paragraphs 2.1.3, 2.1.4 and 2.1.5 of UNECE regulation 106, as referenced in Annex I;
the vehicle shall be equipped symmetrically;
the sum of the maximum load ratings of all tyres fitted to the axle shall be at least 1,14 times the maximum permissible axle mass in the case of dual formation and 1,2 times the maximum permissible axle mass in the case of triple formation;
the share of the maximum permissible mass per axle on each tyre of the formation shall not exceed the maximum load rating of each tyre;
the inflation pressure of each tyre in the formation shall conform to the recommendation of the tyre manufacturer taking into account the actual load on each tyre and the service conditions.
The maximum permissible mass per axle according to the tyre specification and the maximum permissible mass per axle are the ones declared by the vehicle manufacturer.
The owner’s manual, the information document and the certificate of conformity shall mention the values of mass per axle for each one of them depending on the maximum permissible mass per axle according to the tyre specification.
In the case of tyres identified by speed symbol D (i.e. 65 km/h) or lower the ‘table load-capacity variation with speed’ as referred to in paragraph 2.30 of UNECE Regulation No 106, as referenced in Annex I, for its specific category of use is taken into account. The table shows, as a function of the load-capacity indices and nominal-speed-category symbols, the load variations which a pneumatic tyre can withstand taking into account the maximum design speed of the vehicle.
In the case of tyres identified by speed symbol F (80 km/h) or higher, type-approved according to UNECE Regulation No 54, the ‘table load-capacity variation with speed’ as referred to in paragraph 2.29 of that Regulation is taken into account. The table shows, as a function of the load-capacity indices and nominal-speed-category symbols, the load variations which a pneumatic tyre can withstand taking into account the maximum design speed of the vehicle.
In the case of tyres type-approved according to UNECE Regulation No 75, the ‘table load-capacity variation with speed’ as referred to in paragraph 2.27 of that Regulation is taken into account. The table shows, as a function of the load-capacity indices and nominal-speed-category symbols, the load variations which a pneumatic tyre can withstand taking into account the maximum design speed of the vehicle.
unloading shall occur before road transport;
vehicles equipped with injectors, or any other ground engaging attachment (e.g. ploughs) or dragging objects are considered to be operating in a high torque mode;
vehicles towing trailers are also considered to be operating in a high torque mode when operating on slopes greater than 11° (20 %).
A tyre manufacturer may be designated as accredited in-house technical service to perform self testing, in accordance with Article 60 of Regulation (EU) No 167/2013.
All tractors shall be equipped with a device for reversing which can be operated from the driving position.
For the purposes of this Annex:
[F1‘ Track undercarriage ’ means a system comprising at least two of the following items: track rollers, track idler and track driver, with a continuous track chain or track belt running around them.
‘ Track rollers ’ means the cylinders in the track undercarriage that transmit the mass of the vehicle and track undercarriage to the ground via the track belt or track chain.
‘ Track belt ’ means a continuous flexible rubber like belt, reinforced internally to enable the tractive forces.]
‘Track length’ means the distance between the centres of the extreme track rollers under which the pads or track belt are contacting the ground.
‘Track width’ means the distance between two parallel planes bounding the outside of the raised tread pattern (lugs) or pads.
[F2‘ Track idler ’ means sprockets or pulleys in the track undercarriage that do not transmit torque to the track belt or track chain, their main function being the tensioning of the track chain or track belt; track idlers may also create the ramp up/down angles in the track geometry.
‘ Track driver ’ means the sprocket or cage wheel in the track undercarriage that transmit torque from the vehicle drive system to the track belt or track chain.
‘ Track chain ’ means a continuous metallic chain which engages with the track driver and where each link is with a transversal metallic track shoe, the latter optionally padded with a rubber strip for road surface protection.
Where NR is the total number of track rollers directly transferring load onto the road surface (via the tracks and pads) and AP is the outer surface area of each pad (i.e. in contact with the road), in mm2. AP is defined by measuring the footprint of one pad perpendicular under the centre of a not extreme track roller, by lowering a laden vehicle onto a suitable piece of cardboard or other permanently deformable material and measuring the area of the depression so caused.
Where AL is the total surface area of rubber lugs in contact with the road, between the centres of the extreme track rollers under which the track belt is contacting the ground. The supplier of the rubber belt shall provide the percentage of lug area(19) versus the total surface of the belt (defined as the track length multiplied by the track width), or the total lug area in contact with the road can be measured by lowering a laden vehicle onto a suitable piece of cardboard or other permanently deformable material and measuring the total area of the depressions so caused.
The type-approval mark shall be affixed to the statutory plate in accordance with Annex XX, presenting the compliance of the vehicle with the appropriate requirements of points 3.1 – 3.7.
For the purposes of this Annex:
‘Mechanical coupling between tractor and towed vehicle’ means the components installed on the tractor and on the towed vehicle in order to provide the mechanical coupling between those vehicles.
‘Type of mechanical coupling between tractor and towed vehicle’ means parts which do not differ from one another in such essential respects as:
nature of mechanical coupling component,
drawbar rings,
external shape, dimensions or mode of operation (e.g. automatic or non-automatic),
material,
value of D as defined in Appendix 2 for the test performed using the dynamic method or the trailer mass as defined in Appendix 3 for tests performed using the static method, and also the vertical load on the coupling point S.
[F1‘ Reference centre of mechanical coupling on tractor ’ means the point on the pin axis which is equidistant from the wings in the case of a fork and the point resulting from the intersection of the plane of symmetry of the hook with the generatrix of the concave part of the hook at the level of contact with the ring when this is in the traction position.]
[F2‘ Reference centre of mechanical coupling on towed vehicle ’ means, for coupling devices with a cylindrical or rounded head, the point of intersection between the vertical axis passing through the centre of the device hole and the centreline plane of the cylindrical or rounded device head, and, for coupling devices with spherical head, the point of the geometric centre of the spherical cavity.]
[F1‘ Height above ground of mechanical coupling on tractor ’ means the distance between the horizontal plane through the reference centre of the mechanical coupling on tractor and the horizontal plane on which the wheels of the tractor are resting.]
‘Vertical load on the coupling point’ means the load transmitted, under static conditions on the reference centre of the mechanical coupling.
‘Automatic mechanical coupling’ means a mechanical coupling component which closes and secures itself when the sliding mechanism for the drawbar rings is actuated, without further action.
‘Weight on the front axle of the unladen tractor’ means that part of the weight of the tractor which, under static conditions, is transmitted on the ground by the front axle of the tractor.
In automatic coupling components the locked position shall be secured in a form-locking manner by two independently functioning safety devices. However, the latter may be released using the same control device.
The angles of articulation shall not be attained at the same time.
The towing hook, no-swivel clevis coupling, ball coupling and pin (piton) coupling shall allow the drawbar ring to swivel axially at least 20 o to the right or left around the longitudinal axis of the coupling.
The dimensions of the mechanical coupling components on the tractor shall comply with Appendix 1, Figures 1 to 5 and Table 1.
The dimensions of the mechanical coupling components on the towed vehicle shall comply with the ones permitted by the combinations in Table 2 of Appendix 1.
a dynamic test under the conditions set out in Appendix 2 or a static test under the conditions set out in Appendix 3, if they are used on vehicles with maximum design speed not exceeding 40 km/h;
a dynamic test under the conditions set out in Appendix 2, if they are used on vehicles with maximum design speed exceeding 40 km/h.
Alternatively, in both cases set out in points (i) and (ii), the dynamic test may be performed according to the requirements of the UNECE Regulation No 55 as referenced in Annex I.
The permissible static vertical load shall not exceed the technically permissible static vertical load recommended by the manufacturer of the tractor nor the static vertical load laid down for the mechanical coupling pursuant to component type-approval.
Whatever the state of loading of the tractor, the mass transmitted to the road by the wheels on the forward (steering) axle shall not be less than 20 % of the unladen mass of that tractor, but the maximum load on the rear (other) axle shall not be exceeded.
:
mass of the tractor,
:
mass of the tractor with ballast weight on the front axle,
:
weight on the front axle of the unladen tractor,
:
weight on the front axle of the tractor with ballast weight on the front axle,
:
tractor wheelbase,
:
vertical load on the coupling point,
:
distance between the reference centre of the mechanical coupling and the vertical plane passing through the axle of the rear wheels of the tractor.
Masses mt, mlt, ma and mla are expressed in kg.
scale drawings of the coupling device (three copies). These drawings shall in particular show the required dimensions in detail as well as the measurements for mounting the device,
[F1a short technical description of the coupling device specifying the kind of construction and the material used,]
a statement of the value of D as referred to in Appendix 2 for the dynamic test or the value of T (towable mass in tonnes), corresponding to the technically permissible maximum laden trailer mass, as referred to in Appendix 3 for the static test, and also the vertical maximum load on the coupling point S (expressed in kg),
one or more sample devices as required by the technical service.
the new type of coupling device has received EU component type-approval;
[F1it is suitable for mounting on the type of vehicle for which the extension of the EU type-approval is requested;
the attachment of the coupling device on the vehicle corresponds to that which was presented when EU component type-approval was granted.]
trade name or mark;
[F1EU component type-approval mark conforming to the model set out in Annex IV of Implementing Regulation (EU) 2015/504;]
where the strength is checked in accordance with Appendix 2 (dynamic test):
permissible value of D (kN),
static vertical load value of S (kg);
where the strength is checked in accordance with Appendix 3 (static test):
towable mass T (tonnes), and vertical load on the coupling point S (kg).
The data shall be clearly visible, easily legible and durable.
vehicles of category Sa;
[F5interchangeable towed equipment of category R1a or R2a intended mainly to process materials within the meaning of Article 3(9) of Regulation (EU) No 167/2013;]
vehicles of category Ra of a difference of laden and unladen mass of less than 2 tons.
If the vehicles referred to in the first paragraph are fitted with couplings intended to be connected with the three-point hitch or the lower link arms of the tractor, the parts of these systems shall meet the dimensional requirements of section 5 of ISO 730:2009, Amd.1: 2014.
The manufacturer's calculations or test results on the strength of the parts of the couplings, as part of compliance with Directive 2006/42/EC, shall be provided to the technical service, instead of the test results in point 3.2 of this Annex. The technical service shall verify the accuracy of the manufacturer's calculations or test results. Appropriate information with regard to safe coupling and fixing of the lower links vertically and laterally as well as the material quality of the spare parts and the permissible play shall be given in the operator's manual.]
Mechanical couplings on tractors
‘ Clevis mechanical coupling ’ : see Figures 1 and 2.
‘ No-swivel clevis mechanical coupling ’ : see Figure 1d.
‘ Towing hook ’ : see Figure 1 – ‘ Hitch-hook dimensions ’ in ISO 6489-1:2001.
‘ Tractor drawbar ’ : see Figure 3.
‘ Ball mechanical coupling ’ : see Figure 4.
‘ Pin (piton) mechanical coupling ’ : see Figure 5.
Tractor drawbar dimensions shall comply with those of the following categories of ISO 6489-3:2004:
Category (0) (pin 18); compatible with ISO 5692-3, shape W (22 mm hole).
Category (1) (pin 30); compatible with ISO 5692-3, shape X (35 mm ring); ISO 5692-2:2002 (40 mm hole); ISO 8755:2001 (40 mm hole).
Category (2) (pin 30); compatible with ISO 5692-3, shape X (35 mm ring); ISO 5692-2:2002 (40 mm hole); ISO 8755:2001 (40 mm hole).
Category (3) (pin 38); compatible with ISO 5692-1:2004 (50 mm ring); ISO 5692-3:2011 shape Y (50 mm hole); ISO 20019:2001.
Category (4) (pin 50); compatible with ISO 5692-3:2011 shape Z (68 mm hole).
Mechanical couplings on towed vehicles
‘ Hitch rings ’ according to ISO 5692-1:2004 (50 mm hole, 30 mm ring diameter).
‘ Hitch rings ’ according to ISO 20019:2001 (50 mm hole centre, 30 to 41 mm ring diameter).
‘ Swivel hitch rings ’ according to ISO 5692-3:2011.
‘ Coupling rings ’ according to ISO 5692-2:2002 (40 mm socket).
‘ Drawbar eye ’ according to ISO 8755:2001 (40 mm hole).
‘ Drawbar eye ’ according to ISO 1102:2001 (50 mm hole).
‘ Coupling device ’ according to ISO 24347:2005 (80 mm ball diameter).]
Shapes and dimensions of trailer or implement clevis couplings
| Vertical loadSKg | D valueDkN | Shape | DimensionMm | ||
|---|---|---|---|---|---|
| D± 0,5 | amin. | bmin. | |||
| ≤ 1 000 | ≤ 35 | w | 18 | 50 | 40 |
| ≤ 2 000 | ≤ 90 | x | 28 | 70 | 55 |
| ≤ 3 000 | ≤ 120 | y | 43 | 100 | 80 |
| ≤ 3 000 | ≤ 120 | z | 50 | 110 | 95 |
| Coupling component on the tractor | Coupling component on the towed vehicle |
|---|---|
| Corresponding to ISO 6489-1:2001 (towing hook) | Corresponding to ISO 5692-1:2004 (hitch ring, 50 mm hole centre, 30 mm ring diameter) or to ISO 20019:2001 (hitch ring, 50 mm hole centre, 30 to 41 mm ring diameter) or to ISO 5692-3:2011 (swivel hitch rings; compatible only with shape Y, 50 mm hole) |
| Corresponding to ISO 6489-5:2011 (no-swivel clevis coupling) | Corresponding to ISO 5692-3:2011 (swivel hitch rings) |
| Corresponding to ISO 6489-2:2002 (clevis coupling) | Corresponding to ISO 5692-2:2002 (coupling ring, 40 mm socket) or to ISO 8755:2001 (40 mm drawbar eye) or to ISO 1102:2001 (50 mm drawbar eye, compatible only with ISO 6489-2:2002, shape A – non-automatic) |
| Corresponding to ISO 6489-3:2004 (drawbar) | Appropriate coupling mentioned in this column that fits the drawbar dimensions of the tractor mentioned in this Appendix or corresponding to Sa vehicles’ hitch rings and attachment to tractor drawbars according to ISO 21244:2008. |
| Corresponding to ISO 24347:2005 (ball mechanical coupling) | Corresponding to ISO 24347:2005 (80 mm ball diameter) |
| Corresponding to ISO 6489-4:2004 (piton coupling) | Corresponding to ISO 5692-1:2004 (hitch ring, 50 mm hole centre, 30 mm ring diameter) or to ISO 5692-3:2011 (swivel hitch rings; compatible only with shape Y, 50 mm hole)] |
The strength of the mechanical coupling shall be established by alternating traction on a test bed.
This method describes the fatigue test to be used on the complete mechanical coupling device, i.e. when fitted with all the parts needed for its installation the mechanical coupling is mounted and tested on a test bed.
The alternating forces shall be applied as far as possible sinusoidally (alternating and/or rising) with a load cycle depending on the material involved. No tears or breaks may occur during the test.
The horizontal force components in the longitudinal axis of the vehicle together with the vertical force components shall form the basis of the test loads.
In so far as they are of secondary importance, horizontal force components at right angles to the longitudinal axis of the vehicle and also moments shall not be taken into consideration.
The horizontal force components in the longitudinal axis of the vehicle shall be represented by a mathematically established representative force, the value D.
The following equation shall be applied to the mechanical coupling:
Where:
=
the technically permissible maximum laden mass of the tractor,
=
the technically permissible maximum laden mass of the towed vehicles,
=
9,81 m/s2.
The vertical force components at right angles to the track shall be expressed by the static vertical load S.
The technically permissible loads shall be given by the manufacturer.
[F1The test force shall be applied to the mechanical couplings being tested beneath an angle formed by the position of the vertical test load F v vis-à-vis the horizontal test load F h in the direction of the median longitudinal plane passing from top front to bottom rear.
The test force shall be applied at the usual point of contact between the mechanical coupling on the tractor and the corresponding one on the towed vehicle.
The play between the mechanical coupling on the tractor and the corresponding one on the towed vehicle shall be kept to a minimum.]
In principle the test force is applied in an alternating manner around the zero point. With an alternating test force the resulting load is equal to zero.
[F1Should the design of the mechanical coupling (e.g. excessive play, towing hook) make it impossible to carry out the test with an alternating test load, the test load may also be applied on a rising basis in the direction of traction or pressure, whichever is the greater.]
Where the test is carried out with a rising force curve, the test load is equal to the upper (highest) load, and the lower (smallest) load should not exceed 5 % of the upper load.
Care should be taken in the alternating force test to ensure that by suitable mounting of the test apparatus and choice of power conduction system no additional moments or forces arising at right angles to the test force are introduced; the angular error for the direction of force in the alternating force test should not exceed ± 1,5°; and for the rising force test the angle is set in the upper load position.
The test frequency shall not exceed 30 Hz.
For components made of steel or steel casting the load cycle amounts to . The subsequent tear test shall be carried out using the colour penetration method or similar method.
If springs and/or dampers are incorporated into the coupling parts, they shall not be removed during the test but may be replaced if, during the test, they are subject to strain under conditions which would not obtain during normal operation (e.g. heat action) and become damaged. Their behaviour before, during and after the test shall be described in the test report.
The test force shall consist in geometrical terms of the horizontal and vertical test components as follows:
where:
=
static drawbar load (load on the track, expressed in kg).
For components of the mechanical coupling on tractor or towed vehicle, the load is applied using the components of one corresponding mechanical coupling on respectively towed vehicle or tractor as permitted by the combinations listed in Table 2 of Appendix 1.]
The tests shall be carried out on a special machine, with the mechanical coupling and any structure coupling it to the body of the vehicle attached to a rigid structure by means of the same components used to mount it on the vehicle.]
The instruments used to record loads applied and movements shall have the following degree of accuracy:
loads applied ± 50 daN,
movements ± 0,01 mm.
There shall be no breaks for values up to and including the traction test load which is established as 1,5 times the technically permissible trailer mass; in addition, the load/deformation curve shall show a smooth progression, without irregularities, in the interval between 500 daN and 1/3 of the maximum traction load.
During the test, deformation of the coupling device shall not exceed 10 % of the maximum elastic deformation occurring.
The check is carried out after removing the vertical force (in daN, equal to ) and returning to the initial load of 500 daN.
Textual Amendments
F4 Deleted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
F5 Substituted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
Directive 2006/42/EC of the European Parliament and of the Council of 17 May 2006 on machinery, and amending Directive 95/16/EC (OJ L 157, 9.6.2006, p. 24).
Council Decision 97/836/EC of 27 November 1997 with a view to accession by the European Community to the Agreement of the United Nations Economic Commission for Europe concerning the adoption of uniform technical prescriptions for wheeled vehicles, equipment and parts which can be fitted to and/or be used on wheeled vehicles and the conditions for reciprocal recognition of approvals granted on the basis of these prescriptions (Revised 1958 Agreement) (OJ L 346, 17.12.1997, p. 78).
[F1Commission Implementing Regulation (EU) 2015/504 of 11 March 2015 implementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to the administrative requirements for the approval and market surveillance of agricultural and forestry vehicles ( OJ L 85, 28.3.2015, p. 1 ).]
[F3Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles ( OJ L 140, 6.6.2018, p. 8 ).]
[F1Commission Delegated Regulation (EU) 2015/68 of 15 October 2014 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle braking requirements for the approval of agricultural and forestry vehicles ( OJ L 17, 23.1.2015, p. 1 ).]
Directive 2009/3/EC of the European Parliament and of the Council of 11 March 2009 amending Council Directive 80/181/EEC on the approximation of the laws of the Member States relating to units of measurement (OJ L 114, 7.5.2009, p. 10).
Measurement of the chromaticity coordinates of the light emitted by the lamps is not part of this Annex.
[F1Commission Delegated Regulation (EU) No 1322/2014 of 19 September 2014 supplementing and amending Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle construction and general requirements for the approval of agricultural and forestry vehicles ( OJ L 364, 18.12.2014, p. 1 ).]
Commission Delegated Regulation (EU) No 3/2014 of 24 October 2013 supplementing Regulation (EU) No 168/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of two- or three-wheel vehicles and quadricycles (OJ L 7, 10.01.2014, p. 1).
If applicable.
If applicable.
[F3Directive 2006/42/EC of the European Parliament and of the Council of 17 May 2006 on machinery, and amending Directive 95/16/EC (recast) ( OJ L 157, 9.6.2006, p. 24 ).]
Commission Delegated Regulation (EU) No 3/2014 of 24 October 2013 supplementing Regulation (EU) No 168/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of two- or three-wheel vehicles and quadricycles (OJ L 7, 10.1.2014, p. 1).
[F1As defined in Part A of Annex II to Directive 2007/46/EC.]
As defined in item 2.6 of Appendix 1.
Commission Regulation (EU) No 1005/2010 of 8 November 2010 concerning type-approval requirements for motor vehicle towing devices and implementing Regulation (EC) No 661/2009 of the European Parliament and of the Council concerning type- approval requirements for the general safety of motor vehicles, their trailers and systems, components and separate technical units intended therefor (OJ L 291, 9.11.2010, p. 36).
Regulation (EC) No 661/2009 of the European Parliament and of the Council of 13 July 2009 concerning type-approval requirements for the general safety of motor vehicles, their trailers and systems, components and separate technical units intended therefor (OJ L 200, 31.7.2009, p. 1).
% of lug area, also known as ‘land and sea’.
Textual Amendments
F1 Substituted by Commission Delegated Regulation (EU) 2016/1788 of 14 July 2016 amending Regulation (EU) No 167/2013 of the European Parliament and of the Council as regards the list of requirements for vehicle EU type-approval, and amending and correcting Commission Delegated Regulations (EU) No 1322/2014, (EU) 2015/96, (EU) 2015/68 and (EU) 2015/208 with regard to vehicle construction and general requirements, to environmental and propulsion unit performance requirements, to vehicle braking requirements and to vehicle functional safety requirements (Text with EEA relevance).
F3 Inserted by Commission Delegated Regulation (EU) 2018/829 of 15 February 2018 amending and correcting Delegated Regulation (EU) 2015/208 supplementing Regulation (EU) No 167/2013 of the European Parliament and of the Council with regard to vehicle functional safety requirements for the approval of agricultural and forestry vehicles (Text with EEA relevance).
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