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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 (Text with EEA relevance)
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Version Superseded: 16/10/2016
Point in time view as at 24/10/2013.
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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 168/2013 of the European Parliament and of the Council of 15 January 2013 on the approval and market surveillance of two- or three-wheel vehicles and quadricycles(1), and in particular Articles 18(3), 20(2), 22(5) and 54(3) thereof,
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, comprehensive EU type-approval and a strengthened market surveillance system for L-category vehicles and its systems, components and separate technical units, as defined by Regulation (EU) No 168/2013, apply.
(2) The term ‘L-category vehicles’ covers a wide range of light vehicle types with two, three or four wheels, e.g. powered cycles, two- and three-wheel mopeds, two- and three-wheel motorcycles, motorcycles with side-cars and four-wheel vehicles (quadricycles) such as on-road quads, all-terrain vehicles and quadrimobiles.
(3) By Council Decision 97/836/EC(2), the Union acceded 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’).
(4) By Decision 97/836/EC, the Union also acceded to United Nations Economic Commission for Europe (UNECE) regulations Nos 1, 3, 4, 6, 7, 8, 10, 11, 12, 13, 14, 16, 17, 18, 19, 20, 21, 23, 25, 26, 28, 31, 34, 37, 38, 39, 43, 44, 46, 48, 58, 66, 73, 77, 79, 80, 87, 89, 90, 91, 93, 97, 98, 99, 100 and 102.
(5) The Union acceded to UNECE regulation No 110 on specific components of motor vehicles using compressed natural gas (CNG) in their propulsion system and on vehicles with regard to the installation of specific components of an approved type for the use of compressed natural gas (CNG) in their propulsion system. By Council Decision 2000/710/EC(3), the Union has also acceded to UNECE regulation No 67 on the approval of special equipment for motor vehicles fuelled by liquefied petroleum gas.
(6) Manufacturers apply for type approval for L-category vehicles, their systems, components or separate technical units in accordance with Regulation (EU) No 168/2013. In the Union legislation most requirements on vehicle parts are taken over from the corresponding UNECE regulations. UNECE regulations are constantly amended in line with technological progress and the respective Union regulations have to be regularly updated accordingly. In order to avoid this duplication, the CARS 21 High Level Group recommended(4) the replacement of several Union directives by way of the incorporation and compulsory application of the corresponding UNECE regulations in Union law.
(7) The possibility of applying UNECE regulations by virtue of Union legislation that provides for the incorporation of those UNECE regulations for the purpose of EU vehicle type-approval is provided for in Regulation (EU) No 168/2013. Under that Regulation, type-approval in accordance with UNECE regulations which apply on a compulsory basis is regarded as EU type-approval in accordance with that Regulation and its delegated and implementing acts.
(8) The compulsory application of UNECE regulations helps avoiding 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 could improve market access in third countries, in particular those which are contracting parties to the Revised 1958 Agreement, and thus enhance the Union industry’s competitiveness.
(9) It is appropriate to include UNECE regulations Nos 1, 3, 4, 6, 7, 8, 10, 14, 16, 17, 18, 19, 20, 23, 26, 28, 30, 31, 34, 37, 38, 39, 43, 44, 45, 46, 48, 53, 54, 55, 56, 57, 60, 62, 64, 67, 72, 74, 75, 76, 77, 78, 81, 82, 87, 90, 91, 97, 98, 99, 100,, 104, 106, 110, 112, 113, 116, 119, 121, 122, 123 and 127 in the list of UNECE regulations that apply on a compulsory basis set out in Annex I to this Regulation.
(10) Article 22 of, and Annexes II(B) and VIII to, Regulation (EU) No 168/2013 lay down functional safety requirements. Requirements regarding saddles and seats, steer-ability, cornering properties and turn-ability, endurance testing of functional safety critical systems, parts and equipment and vehicle structure integrity are deemed paramount for the functional safety of an L-category vehicle, as well as requirements on electrical safety, which was added in order to adapt to technical progress. Requirements regarding the maximum speed limitation plate and its location on the vehicle as also regarding roll-over protective structure have been adopted to address specific characteristics of category L7e-B vehicle’s that are designed for off-road use but that travel also on hard-paved public roads.
(11) The limitation to ‘four’ of the ratio of auxiliary propulsion power and actual pedal power for cycles designed to pedal set out in Annex XIX should be subject to further scientific research and assessment. Upon availability of scientific data and statistics on vehicles placed on the market, the ratio ‘four’ referred to above may be revisited in a future revision of this Regulation.
(12) This Regulation should apply as from date of application of Regulation (EU) No 168/2013,
HAS ADOPTED THIS REGULATION:
This Regulation establishes the detailed technical requirements and test procedures regarding functional safety for the approval and market surveillance of L-category vehicles and the systems, components and separate technical units intended for such vehicles in accordance with Regulation (EU) No 168/2013 and sets out a list of UNECE regulations and amendments thereto.
The definitions of Regulation (EU) No 168/2013 shall apply. In addition, the following definitions shall apply:
‘audible warning device’ means a device emitting an acoustic signal intended to give warning of the presence of, or a manoeuvre by, a vehicle in a dangerous road traffic situation, consisting of one or more sound emission orifices that are excited by a single power source or of several components each emitting an acoustic signal and operating simultaneously as a result of being actuated by a single control;
‘type of electrical audible warning device’ means audible warning devices not essentially differing among themselves, particularly in respect of the following aspects: trade mark or name, operating principle, type of power supply (direct current, alternating current, compressed air), outer shape of the casing, shape and dimensions of the diaphragm(s), shape or type of the sound emission orifice(s), nominal sound frequencies, nominal supply voltage and, in the case of warning devices supplied direct by an external source of compressed air, the nominal operating pressure;
‘type of mechanical audible warning device’ means audible warning devices not essentially differing among themselves, particularly in respect of the following aspects: trade mark or name, operating principle, type of actuation, outer shape and size of the bell and the internal construction;
‘type of vehicle with regard to the audible warning’ means vehicles which do not differ in such essential respects as: the number of audible warning devices fitted to the vehicle, the type(s) of audible warning device(s) fitted to the vehicle, the mountings used to fit the audible warning device(s) to the vehicle, the position and orientation of the audible warning device(s) on the vehicle, the rigidity of the parts of the structure on which the audible warning device(s) is/are fitted and the shape and materials of the bodywork forming the part of the vehicle which may affect the level of the sound emitted by the audible warning device(s) and which may have a masking effect;
‘bodywork’ means the external structure of the motor vehicle which comprises of fenders, doors, pillars, side walls, roof, floor, front bulkhead, rear bulkhead and/or other external panels;
‘type of vehicle with regard to braking’ means vehicles which do not differ in such essential respects as the maximum mass, the distribution of mass between the axles, the maximum vehicle design speed, the tyre sizes and wheel dimensions, as well as the design characteristics of the braking system and its components;
‘type of vehicle with regard to electrical safety’ means vehicles which do not differ in such essential respects as the location of conducting parts and components of the entire electrical system installed in the vehicle, the installation of the electric powertrain and the galvanically connected high voltage bus as well as the nature and type of electric powertrain and the galvanically connected high voltage components;
‘active driving possible mode’ means the vehicle mode when application of the electric acceleration position sensor, activation of an equivalent control or release of the brake system will cause the electric powertrain to propel the vehicle;
‘barrier’ means the part providing protection against direct contact to the live parts from any direction of access;
‘conductive connection’ means the connection using connectors to an external power supply when the rechargeable energy storage system (REESS) is charged;
‘REESS’ means the rechargeable electric energy storage system that provides energy for electric propulsion;
‘coupling system for charging the REESS’ means the electrical circuit used for charging the REESS from an external electric power supply including the vehicle inlet;
‘direct contact’ means the contact of persons with live parts;
‘electrical chassis’ means a set made of conductive parts electrically linked together, whose potential is taken as reference;
‘electrical circuit’ means an assembly of connected live parts which is designed to be electrically energised in normal operation;
‘electric energy conversion system’ means a system that generates and provides electric energy for electric propulsion;
‘electric powertrain’ means the electrical circuit which includes the traction motor(s), and includes the REESS, the electric energy conversion system, the electronic converters, the associated wiring harness and connectors, and the coupling system for charging the REESS;
‘electronic converter’ means a device capable of controlling and/or converting electric power for electric propulsion;
‘enclosure’ means the part enclosing the internal units and providing protection against direct contact from any direction of access;
‘exposed conductive part’ means the conductive part which can be touched under the provisions of the protection degree IPXXB, and which becomes electrically energised under isolation failure conditions;
‘external electric power supply’ means an alternating current (AC) or direct current (DC) electric power supply outside of the vehicle;
‘high voltage’ means the classification of an electric component or circuit, if its working voltage is > 60 V and ≤ 1 500 V DC or > 30 V and ≤ 1 000 V AC root mean square (rms);
‘high voltage bus’ means the electrical circuit, including the coupling system for charging the REESS that operates on high voltage;
‘indirect contact’ means the contact of persons with exposed conductive parts;
‘live parts’ means the conductive part(s) intended to be electrically energised in normal use;
‘luggage compartment’ means the space in the vehicle for luggage accommodation, bounded by the roof, bonnet, trunk lid or rear door and floor and side walls, as well as by the barrier and enclosure provided for protecting the powertrain from direct contact with live parts, being separated from the passenger compartment by the front or rear bulkhead;
‘on-board isolation resistance monitoring system’ means the device which monitors the isolation resistance between the high voltage buses and the electrical chassis;
‘open type traction battery’ means a liquid type battery requiring refilling with water and generating hydrogen gas released to the atmosphere;
‘passenger compartment’ means the space for occupant accommodation, bounded by the roof, floor, side walls, doors, window glass, front bulkhead and rear bulkhead, or rear gate, as well as by the barriers and enclosures provided for protecting the powertrain from direct contact with live parts;
‘protection degree’ means the protection provided by a barrier or enclosure related to the contact with live parts by a test probe, such as a jointed test finger (IPXXB) or a test wire access probe (IPXXD);
‘service disconnect’ means the device for deactivation of the electrical circuit for the purpose of servicing or checking electrical components such as the REESS and fuel cell stack;
‘solid insulator’ means the insulation coating of wiring harnesses insulating live parts against direct contact from any direction of access, covers insulating live parts of connectors, as well as varnish or paint applied for the purpose of insulation;
‘working voltage’ means the highest value of an electrical circuit voltage root-mean-square (rms) as specified by the vehicle manufacturer for each separate and galvanically isolated circuit, which may occur between any conductive parts in open circuit conditions or under normal operating condition;
‘type of vehicle with regard to endurance’ means vehicles which do not differ in such essential respects as the overall design characteristics as well as the vehicle and component manufacturing and assembly facilities as well as their quality control and assurance procedures;
‘type of vehicle with regard to front and rear protective structure’ means vehicles which do not differ in such essential respects as the shape and location of structures, parts and components located at the front and rear of the vehicle;
‘projection’ means the dimension of an edge as determined in accordance with paragraph 2 of Annex 3 to UNECE regulation No 26(5);
‘floor line’ means the line as defined in paragraph 2.4 of UNECE regulation No 26;
‘vehicle structure’ means parts of the vehicle, including bodywork, components, fenders, brackets, linkage, tyres, wheels, wheel guards and glazing, comprised of material with a hardness of at least 60 Shore (A);
‘type of vehicle with regard to glazing, windscreen wipers and washers, and defrosting and demisting systems’ means vehicles which do not differ in such essential respects as the shape, size, thickness and characteristics of the windscreen and its mounting, the characteristics of the wiper and washer system and the characteristics of the defrosting and demisting systems;
‘windscreen wiper system’ means the system consisting of a device for wiping the outer face of the windscreen, together with the accessories and controls necessary for starting and stopping the device;
‘wiper field’ means the area(s) on the windscreen wiped by the wiper blade(s) when the wiper system is operating under normal conditions;
‘windscreen washer system’ means the system consisting of devices for storing, transferring and aiming fluid towards the outer face of the windscreen, together with the controls necessary for starting and stopping the device;
‘washer control’ means the device by which the windscreen washer system is manually activated and deactivated;
‘washer pump’ means a device for transferring fluid from the washer system storage reservoir to the outer face of the windscreen;
‘nozzle’ means a device which serves to direct fluid onto the windscreen;
‘fully primed (system)’ means a system which has been activated normally for a period of time and where fluid has been transferred through the pump and tubing, and has exited the nozzle(s);
‘cleaned area’ means the previously soiled area which does not have any traces of drops and remaining dirt after it has dried completely;
‘vision area A’ means test area A as defined in paragraph 2.2 of Annex 18 to UNECE regulation 43(6);
‘vehicle master control switch’ means the device by which the vehicle’s on-board electronics system is brought from being switched off, as is the case when a vehicle is parked without the driver being present, to normal operation mode;
‘type of vehicle with regard to identification of controls, tell-tales and indicators’ means vehicles which do not differ in such essential respects as the number, location and design characteristics of controls, tell-tales and indicators, and the tolerances of the speedometer’s measuring mechanism, technical constant of the speedometer, range of speeds displayed, overall transmission ratio, including any reduction drives, to the speedometer and the minimum and maximum tyre size designations;
‘control’ means any part of the vehicle or component directly actuated by the driver which causes a change in the state or operation of the vehicle or one of the parts thereof;
‘tell-tale’ means an optical signal which indicates the actuation of a device, correct or defective functioning or condition, or failure to function;
‘indicator’ means a device providing information on the proper functioning or state of a system or part of a system, such as the level or temperature of a fluid;
‘speedometer’ means a device indicating to the driver the speed of the vehicle at any given moment;
‘odometer’ means a device that indicates the distance travelled by a vehicle;
‘symbol’ means a diagram from which to identify a control, a tell-tale or an indicator;
‘common space’ means a specific area on which more than one tell-tale, indicator, symbol or other information may be displayed;
‘type of vehicle with regard to installation of lighting’ means vehicles which do not differ in such essential respects as the dimensions and outer shape of the vehicle, as well as the number, location and design characteristics of the installed lighting devices and light-signalling devices;
‘lighting device’ means a type-approved lamp or type-approved retro-reflector;
‘light-signalling device’ means a lighting device which may be used for signalling;
‘single (lighting device)’ means a lighting device or part of a device, having one function and one illuminating surface and one or more light sources; it may also mean any assembly of two independent or grouped lighting devices, whether identical or not, having the same function, if they are installed in such a way that the projections of the light-emitting surfaces of the lighting devices on a given transverse plane occupy not less than 60 % of the smallest rectangle circumscribing the projections of the said light-emitting surfaces;
‘light-emitting surface’ of a lighting device means all or part of the exterior surface of the translucent material, as stated in the component type-approval documentation; this may include or entirely consist of the illuminating surface and may also include the area which is completely circumscribed by the lighting device;
‘illuminating surface’ of a lighting device means the surface as defined in paragraph 2.7 of UNECE regulation No 53(7);
‘independent (lighting device)’ means a lighting device having a separate illuminating surface, light source and lamp body;
‘grouped (lighting devices)’ means lighting devices having separate illuminating surfaces and light sources, but a common lamp body;
‘combined (lighting devices)’ means lighting devices having separate illuminating surfaces but a common light source and a common lamp body;
‘reciprocally incorporated (lighting devices)’ means lighting devices having separate light sources or a single light source operating under different conditions (e.g. optical, mechanical or electrical differences), totally or partially common illuminating surfaces and a common lamp body;
‘driving-beam headlamp’ means a device used to illuminate the road over a long distance ahead of the vehicle (main beam);
‘passing-beam headlamp’ means a device used to illuminate the road ahead of the vehicle without causing undue dazzle or discomfort to oncoming drivers or other road users (dipped beam);
‘front position lamp’ means a device used to indicate the presence of the vehicle when viewed from the front;
‘daytime running lamp’ means a lamp facing in a forward direction used to make the vehicle more easily visible when driving during daytime;
‘front fog lamp’ means a device used to improve the illumination of the road in case of fog, snowfall, rainstorms or dust clouds;
‘direction indicator lamp’ means a device used to indicate to other road users that the driver intends to change direction to the right or the left;
‘hazard warning signal’ means 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 a device used to indicate to other road users to the rear of the vehicle that the latter’s driver is applying the service brake;
‘rear position lamp’ means a device used to indicate the presence of the vehicle when viewed from the rear;
‘rear fog lamp’ means a device used to render the vehicle more readily visible from the rear in the event of fog, snowfall, rainstorms or dust clouds;
‘reversing lamp’ means a device 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;
‘rear registration plate lamp’ means a device used to illuminate the space intended to accommodate the rear registration plate that consists of one or several optical elements;
‘retro-reflector’ means a device used to indicate the presence of a vehicle by the reflection of light emanating from a light source not connected to the vehicle, the observer being situated near that source, excluding retro-reflecting registration plates or speed limitation plates;
‘rear retro-reflector’ means a retro-reflector device used to indicate the presence of the vehicle when viewed from the rear;
‘side retro-reflector’ means a retro-reflector device used to indicate the presence of the vehicle when viewed from the side;
‘side marker lamp’ means a device used to indicate the presence of the vehicle when viewed from the side;
‘reference axis’ means the characteristic axis of a device as stated in the component type-approval documentation for use as the direction of reference (H = 0°, V = 0°) for angles of field for photometric measurements and when fitting the lamp on the vehicle;
‘reference centre’ means the intersection of the reference axis with the light-emitting surface, the centre of reference being specified by the manufacturer of the lighting device;
‘geometric visibility’ means the angles which determine the square field in which the light-emitting surface of the lighting device is completely visible when the relevant angles (α vertical and β horizontal) are measured at the outward contour of the apparent surface and the lamp is observed from afar. However, if any obstacles is located within this field and partly obscuring the light-emitting surface, it may be accepted where it is proven that, even with such obstructions, the photometric values prescribed for the type-approval of the lighting device as component are complied with;
‘longitudinal median plane of the vehicle’ means the plane of symmetry of the vehicle or, if the vehicle is not symmetrical, the vertical longitudinal plane passing through the middle of the vehicle axles;
‘operating tell-tale’ means a visual, auditory or any other equivalent signal indicating that a lighting-device has been switched on and whether or not it is operating correctly;
‘closed-circuit tell-tale’ means a tell-tale indicating that a device has been switched on, but not indicating whether it is operating correctly or not;
‘type of vehicle with regard to rearward visibility’ means vehicles which do not differ in such essential respects as the dimensions and external shape of the vehicle as well as the number, location and design characteristics of the installed devices for indirect vision;
‘type of vehicle with regard to roll-over protection structure’ means vehicles which do not differ in such essential respects as the structure on the vehicle, the essential purpose of which is to mitigate or avoid risk of severe injury to the vehicle’s occupants resulting from a roll-over of the vehicle during normal use;
‘zone of clearance’ means the space occupied by a 50th percentile male manikin represented by the Hybrid III anthropomorphic test device in normal seating position on all seating positions;
‘type of vehicle with regard to safety belt anchorages and safety belts’ means vehicles which do not differ in such essential respects as the main vehicle construction and design characteristics as well as that of the safety belt anchorages and the number, location and configuration of fitted safety belts;
‘adjustment system’ means the device enabling the parts of the seat to be adjusted in order to achieve a seating position that is adapted to the occupant’s morphology, including longitudinal, vertical and/or angular adjustments;
‘displacement system’ means an adjustment and locking system including a folding seatback fitted to seats in front of other seats, enabling passengers to access and exit from such rear seats when there are no doors adjacent to that rear seating row;
‘saddle’ means a seating position where the rider or passenger sits astride;
‘seat’ means a seating position which is not a saddle and which has a seat back offering support for the driver’s or passenger’s back;
‘seat back’ means a structural element behind the seating position’s R-point at a height of more than 450 mm measured from the vertical plane passing through the R-point against which the back of a seated person can rest completely;
‘50th percentile male manikin’ means a physical anthropomorphic test device possessing specified dimensions and masses or a virtual model, both representing the body of an average male human;
‘actual safety belt anchorage’ means a point of the vehicle structure or the seat structure or any other part of the vehicle to which a safety belt assembly is to be physically mounted;
‘effective safety belt anchorage’ means a clearly defined point in the vehicle which has sufficiently rigid properties as to change the routing, course and direction of a safety belt which is worn by the vehicle occupant and comprises of such point which is closest to that portion of the belt which is in actual and direct contact with the wearer;
‘front seating position’ means a single foremost seating position, which may be grouped in a row of several other seating positions;
‘rear seating position’ means a single seating position located fully behind the line of a front seating position and which may be grouped in a row of several seating positions;
‘torso reference line’ means the torso line as determined by the vehicle manufacturer for each seating position and established in accordance with Annex 3 to UNECE regulation No 17(8);
‘torso angle’ means the angle between the vertical and the torso line;
‘design position’ means the position into which a device such as a seat can be adjusted so that all relevant settings correspond as closely as possible to a specified position;
‘ISOFIX’ means a system for the connection of child restraint systems to vehicles which has two vehicle rigid anchorages, two corresponding rigid attachments on the child restraint system and a means of limiting the pitch rotation of the child restraint system;
‘type of vehicle with regard to seating positions’ means vehicles which do not differ in such essential respects as the shape, location and number of seats or saddles;
‘5th percentile adult female manikin’ means a physical anthropomorphic test device possessing specified dimensions and masses or a virtual model, both representing the body of a small female human;
‘type of vehicle with regard to steer-ability, cornering properties and turn-ability’ means vehicles which do not differ in such essential respects as the design characteristics of the steering mechanism, reversing device and locking differentials, if such devices are fitted to the vehicle;
‘turning circle’ means the circle within which is located the projections onto the ground plane of all the points of the vehicle, excluding rear-view mirrors, when the vehicle is driven in a circle;
‘unusual vibration’ means a vibration which differs substantially from a normal and constant vibration, characterised by one or more unintended sharp increases of the amplitude of the vibration and leading to increased steering forces that are not constant and not predictable in nature;
‘type of vehicle with regard to the installation of tyres’ means vehicles which do not differ in such essential respects as the types of tyre, minimum and maximum tyre size designations, wheel dimensions and off-sets as well as speed and load capabilities suitable for fitment, and the characteristics of the fitted wheel guards;
‘wheel off-set’ means the distance from the hub abutment face to the centre line of the rim;
‘temporary-use spare unit’ means a unit with a tyre different from those to be fitted to the vehicle for normal driving conditions, but intended only for temporary use under restricted driving conditions;
‘maximum load rating’ means the mass which a tyre can carry when operated in conformity with requirements governing utilisation specified by the tyre manufacturer, expressed as a load capacity index number;
‘load capacity index’ means a number linked to the maximum load rating of the tyre and relating to the definition in paragraph 2.26 of UNECE regulation No 75(9), paragraph 2.28 of UNECE regulation No 30(10), paragraph 2.27 of UNECE regulation No 54(11) and paragraph 2.28 of UNECE regulation No 106(12);
‘speed category symbol’ means the symbol defined in paragraph 2.28 of UNECE regulation No 75, paragraph 2.29 of UNECE regulation No 30, paragraph 2.28 of UNECE regulation No 54 and paragraph 2.29 of UNECE regulation No 106;
‘type of vehicle with regard to maximum speed limitation plate and its location on the vehicle’ means vehicles which do not differ in such essential respects as the maximum design vehicle speed and the material, orientation, and design characteristics of the maximum speed limitation plate;
‘virtually flat surface’ means a surface of solid material, with a radius of curvature of at least 5 000 mm;
‘vehicle type with regard to interior fittings and doors’ means vehicles which do not differ in such essential respects as the design characteristics of the vehicle’s interior fittings, number and location of seats and doors;
‘level of the instrument panel’ means the line defined by the points of contact of vertical tangents to the instrument panel or at the level of the horizontal plane coinciding with the R-point of the seating position of the driver where the latter is located higher than a tangent contact point in question;
‘contactable edges’ means edges which can be contacted by the surface of a testing apparatus and can consist of structures, elements or components located anywhere in the vehicle, including but not limited to the passenger compartment floor, sides, doors, windows, roof, roof pillars, roof ribs, sun visors, instrument panel, steering control, seats, head restraints, safety belts, levers, knobs, covers, compartments and lights;
‘door’ means any structure or material which has to be opened, displaced, folded, unzipped, slid away or manipulated in any other way in order for a person to enter or leave the vehicle;
‘door centre’ means the dimensional location in a vertical plane parallel to the longitudinal median plane of the vehicle which coincides with the centre of gravity of the door;
‘vehicle type with regard to maximum continuous rated or net power and/or vehicle speed limitation by design’ means vehicles which do not differ in such essential respects as the maximum continuous power output of the electric motor(s) and/or engine, the vehicle maximum design speed and the design characteristics of devices and methodology employed to effectively limit the vehicle’s achievable maximum speed and/or power output;
‘vehicle type with regard to structural integrity’ means vehicles which do not differ in such essential respects as the design characteristics of the mechanical connections, such as welds and threaded connections, as well as the frame, chassis and/or body of the vehicle and the manner in which it is secured.
1.Manufacturers shall equip L-category vehicles with systems, components and separate technical units affecting 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. In accordance with Articles 6 to 22, manufacturers shall demonstrate by means of physical demonstration testing to the approval authority that the L-category vehicles made available on the market, registered or entering into service in the Union comply with the functional safety requirements of Articles 18, 20, 22 and 54 to Regulation (EU) No 168/2013 and comply with the detailed technical requirements and test procedures laid down in this Regulation.
2.Manufacturers shall demonstrate that spare parts and equipment that are made available on the market or are entering into service in the Union are approved in accordance with the requirements of Regulation (EU) No 168/2013, as specified by the detailed technical requirements and test procedures referred to in this Regulation. An approved L-category vehicle equipped with such a spare part or equipment shall meet the same functional safety test requirements and performance limit values as a vehicle equipped with an original part or equipment satisfying endurance requirements up to and including those set out in Article 22(2) of Regulation (EU) No 168/2013.
3.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 control computers.
1.The UNECE regulations and amendments thereto set out in Annex I to this Regulation shall apply to type approval.
2.References to vehicle categories L1, L2, L3, L4, L5, L6 and L7 in the UNECE regulations shall be understood as references to vehicle categories L1e, L2e, L3e, L4e, L5e, L6e and L7e respectively under this Regulation, including any sub-categories.
3.Vehicles with a maximum design vehicle speed of ≤ 25 km/h shall meet all the relevant requirements of UNECE regulations applying to vehicles with a maximum vehicle design speed of > 25 km/h.
1.The functional safety performance test procedures shall be performed in accordance with the test requirements laid down in this Regulation.
2.The test procedures shall be carried out or witnessed by the approval authority or, if authorised by the approval authority, by the technical service.
3.The measurement methods and test results shall be reported to the approval authority in the test report format set out in Article 72(g) of Regulation (EU) No 168/2013.
The test procedures and performance requirements applying to audible warning devices referred to in Annex II (B1) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with Annex II to this Regulation.
The test procedures and performance requirements applying to braking, including anti-lock and combined braking systems if fitted, referred to in Annex II (B2) and Annex VIII to Regulation (EU) No 168/2013, shall be conducted and verified in accordance with the requirements laid down in Annex III to this Regulation.
The test procedures and performance requirements applying to electrical safety referred to in Annex II (B3) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex IV to this Regulation.
The manufacturer’s declaration regarding endurance testing of functional safety systems, parts and equipment referred to in Annex II (B4) to Regulation (EU) No 168/2013 shall comply with the requirements laid down in Annex V to this Regulation.
The test procedures and performance requirements applying to front and rear protective structures referred to in Annex II (B5) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex VI to this Regulation.
The test procedures and performance requirements applying to glazing, windscreen wipers and washers, and defrosting and demisting systems referred to in Annex II (B6) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex VII to this Regulation.
The test procedures and performance requirements applying to driver-operated controls including identification of controls, tell-tales and indicators referred to in Annex II (B7) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex VIII to this Regulation.
The test procedures and performance requirements applying to the installation of lighting and light signalling devices, including automatic switching of lighting referred to in Annex II (B8) and Annex VIII to Regulation (EU) No 168/2013, shall be conducted and verified in accordance with the requirements laid down in Annex IX to this Regulation.
The test procedures and measurements in order to test the relevant requirements applying to rearward visibility referred to in Annex II (B9) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex X to this Regulation.
The test procedures and performance requirements applying to the roll-over protective structure referred to in Annex II (B10) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XI to this Regulation.
The test procedures and performance requirements applying to safety belt anchorages and safety belts referred to in Annex II (B11) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XII to this Regulation.
The test procedures and performance requirements applying to seating positions (saddles and seats) referred to in Annex II (B12) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XIII to this Regulation.
The test procedures and performance requirements applying to steer-ability, cornering properties and turn-ability referred to in Annex II (B13) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XIV to this Regulation.
The test procedures and performance requirements applying to the installation of tyres referred to in Annex II (B14) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XV to this Regulation.
The test procedures and performance requirements applying to the maximum vehicle speed limitation plate and its location on L-category vehicles referred to in Annex II (B15) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XVI to this Regulation.
The test procedures and performance requirements applying to vehicle occupant protection, including interior fittings and vehicle doors referred to in Annex II (B16) to Regulation (EU) No 168/2013, shall be conducted and verified in accordance with the requirements laid down in Annex XVII to this Regulation.
The test procedures and performance requirements applying to the limitation by design of maximum continuous total rated and/or net power and/or vehicle speed of L-category vehicles referred to in Annex II (B17) to Regulation (EU) No 168/2013 shall be conducted and verified in accordance with the requirements laid down in Annex XVIII to this Regulation.
The requirements applying to vehicle structure integrity referred to in Annex II (B18) and Annex VIII to Regulation (EU) No 168/2013 shall be complied with in accordance with the requirements laid down in Annex XIX to this Regulation.
In accordance with Article 22 of Regulation (EU) No 168/2013 and with effect from the dates laid down in its Annex IV, national authorities shall, in the case of new vehicles that do not comply with Regulation (EU) No 168/2013 and the provisions of this Regulation, consider certificates of conformity to be no longer valid for the purposes of Article 43(1) of Regulation (EU) No 168/2013 and shall, on grounds relating to functional safety, prohibit the making available on the market, registration, or entry into service of such vehicles.
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 from 1 January 2016.
This Regulation shall be binding in its entirety and directly applicable in all Member States.
Done at Brussels, 24 October 2013.
For the Commission
The President
José Manuel Barroso
Annex number | Annex title | Page No. |
---|---|---|
I | List of UNECE regulations which apply on a compulsory basis | 13 |
II | Test procedures and performance requirements applying to audible warning devices | 15 |
III | Requirements applying to braking, including anti-lock and combined braking systems | 19 |
IV | Requirements regarding electrical safety | 20 |
V | Requirements applying to manufacturers’ declaration regarding endurance testing of functional safety critical systems, parts and equipment | 31 |
VI | Requirements applying to front and rear protective structures | 32 |
VII | Requirements applying to glazing, windscreen wipers and washers, and defrosting and demisting systems | 34 |
VIII | Requirements applying to driver-operated controls including identification of controls, tell-tales and indicators | 39 |
IX | Requirements applying to installation of lighting and light signalling devices, including automatic switching of lighting | 53 |
X | Requirements regarding rearward visibility | 78 |
XI | Requirements applying to roll-over protective structure (ROPS) | 79 |
XII | Requirements applying to safety belt anchorages and safety belts | 82 |
XIII | Requirements applying to seating positions (saddles and seats) | 90 |
XIV | Requirements regarding steer-ability, cornering properties and turn-ability | 92 |
XV | Requirements regarding the installation of tyres | 93 |
XVI | Requirements applying to the vehicle maximum speed limitation plate and its location on the vehicle | 95 |
XVII | Requirements regarding vehicle occupant protection, including interior fittings and vehicle doors | 97 |
XVIII | Requirements regarding maximum continuous rated or net power and/or maximum vehicle speed limitation by design | 100 |
XIX | Requirements regarding vehicle structure integrity | 102 |
UNECE regulation No | Subject | Series of amendments | OJ reference | Applicability |
---|---|---|---|---|
1 | Headlamps for motor vehicles (R2, HS1) | 02 | OJ L 177, 10.7.2010, p. 1 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
3 | Retro-reflectors | Supplement 12 to the 02 series of amendments | OJ L 323, 6.12.2011, p. 1 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
6 | Direction indicators | Supplement 19 to the 01 series of amendments | OJ L 177, 10.7.2010, p. 40 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
7 | Front and rear position lamps and stop lamps | Supplement 16 to the 02 series of amendments | OJ L 148, 12.6.2010, p. 1 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
8 | Headlamps for motor vehicles (H1, H2, H3, HB3, HB4, H7, H8, H9, H11, HIR1, HIR2) | 05 | OJ L 177, 10.7.2010, p. 71 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
16 | Safety belts, restraint systems and child restraint systems | Supplement 1 to the 06 series of amendments | OJ L 233, 9.9.2011, p. 1 | L2e, L4e, L5e, L6e and L7e |
19 | Front fog lamps | Supplement 2 to the 03 series of amendments | OJ L 177, 10.7.2010, p. 113 | L3e, L4e, L5e and L7e |
20 | Headlamps for motor vehicles (H4) | 03 | OJ L 177, 10.7.2010, p. 170 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
28 | Audible warning devices | Supplement 3 to the 00 series of amendments | OJ L 323, 6.12.2011, p. 33 | L3e, L4e and L5e |
37 | Filament bulbs | Supplement 34 to the 03 series of amendments | OJ L 297, 13.11.2010, p. 1 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
38 | Rear fog lamps | Supplement 15 to the 00 series of amendments | OJ L 4, 7.1.2012, p. 20 | L3e, L4e, L5e and L7e |
43 | Safety glazing | Supplement 12 to the 00 series of amendments | OJ L 230, 31.8.2010, p. 119 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
46 | Devices for indirect vision (rear-view mirrors) | Supplement 4 to the 02 series of amendments | OJ L 177, 10.7.2010, p. 211 | L2e, L5e, L6e and L7e |
50 | Lighting components for vehicles of category L | Supplement 16 to the 00 series of amendments | Not yet published in the OJ | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
53 | Installation of lighting (motorcycle) | Supplement 14 to the 01 series of amendments | OJ L 166, 18.6.2013, p. 55 | L3e |
56 | Headlamps for mopeds and vehicles treated as such | 01 | Not yet published in the OJ | L1e, L2e and L6e |
57 | Headlamps for motorcycles and vehicles treated as such | 02 | Not yet published in the OJ | L3e, L4e, L5e and L7e |
60 | Identification of controls tell-tales and indicators | Supplement 2 to the 00 series of amendments | OJ L 95, 31.3.2004, p. 10 | L1e and L3e |
72 | Headlamps for motorcycles and vehicles treated as such (HS1) | 01 | Not yet published in the OJ | L3e, L4e, L5e and L7e |
74 | Installation of lighting (moped) | Supplement 7 to the 00 series of amendments | OJ L 166, 18.6.2013, p. 88 | L1e |
75 | Tyres | Supplement 13 to the 01 series of amendments | OJ L 84, 30.3.2011, p. 46 | L1e, L2e, L3e, L4e and L5e |
78 | Braking, including anti-lock and combined brake systems | Supplement 3 to the 02 series of amendments | OJ L 95, 31.3.2004, p. 67 | L1e, L2e, L3e, L4e and L5e |
81 | Rear-view mirrors | Supplement 2 to the 00 series of amendments | OJ L 185, 13.7.2012, p. 1 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
82 | Headlamps for mopeds and vehicles treated as such (HS2) | 01 | Not yet published in the OJ | L1e, L2e and L6e |
87 | Daytime running lamps | Supplement 15 to the 00 series of amendments | OJ L 4, 7.1.2012, p. 24 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
98 | Headlamps with gas-discharge light sources | Supplement 4 to the 01 series of amendments | Not yet published in the OJ | L3e |
99 | Gas-discharge light sources | Supplement 5 to the 00 series of amendments | OJ L 164, 30.6.2010, p. 151 | L3e |
112 | Headlamps with asymmetrical beams | Supplement 12 to the 00 series of amendments | OJ L 230, 31.8.2010, p. 264 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
113 | Headlamps with symmetrical beams | Supplement 2 to the 01 series of amendments | OJ L 330, 16.12.2005, p. 214 | L1e, L2e, L3e, L4e, L5e, L6e and L7e |
The fact that a component is included in this list does not make its installation mandatory. For certain components, however, mandatory installation requirements are laid down in other annexes to this Regulation.
The device submitted for testing and the microphone shall be at the same height, which shall be between 1,15 and 1,25 m. The line of maximum sensitivity of the microphone shall coincide with the direction in which the sound level of the warning device is at its highest level.
The microphone shall be positioned such that its diaphragm is at a distance of 2 ± 0,01 m from the exit plane of the sound emitted by the device. In the case of devices with several exits, this distance shall be determined in relation to the exit plane closest to the microphone.
All measurements shall be carried out using the ‘rapid’ time constant. The (A) weighting curve shall be used to measure the overall sound pressure levels.
The Fourier transform of the sound signal shall be used in measuring the emitted-sound spectrum. Alternatively, third-octave filters meeting the requirements set out in IEC publication No 225, first edition (1966), may be used, in which case the sound pressure level within the 2 500 Hz centre-octave frequency band shall be determined by adding the quadratic means of the sound pressures in the third-octave bands of centre frequencies of 2 000, 2 500 and 3 150 Hz.
In all cases, only the Fourier transform method may be regarded as a reference method.
In the case of audible warning devices receiving direct current, a test voltage of 6,5, 13,0 or 26,0 V, measured at the output side of the electricity source and corresponding to a nominal voltage of 6, 12 or 24 V respectively.
Where an audible warning device receives direct current which has to be supplied by an electrical generator of the type normally used with this type of device, the acoustic characteristics of the device shall be recorded at alternator speeds corresponding to 50 %, 75 % and 100 % of the maximum speed stated by the manufacturer of the alternator for continuous operation. The alternator shall be subject to no other electrical load during the test. The endurance test described in points 3 to 3.4 shall be carried out at a speed stated by the manufacturer of the equipment and selected from the range referred to above.
If a rectified current is used for the test on an audible warning device receiving direct current, the unsmoothed component of the voltage at its terminals, measured from peak to peak during operation of the warning device, shall not exceed 0,1 V.
The resistance of the electrical conductor for audible warning devices receiving direct current, including the resistance of the terminals and contacts, shall lie as close as possible to 0,05 Ω for a nominal voltage of 6 V, 0,10 Ω for a nominal voltage of 12 V and 0,20 Ω for a nominal voltage of 24 V.
The device to be tested shall be operated by a person or other external means, pushing the operating lever as recommended by the manufacturer. The presence of any operator shall have no noticeable influence on the test results. One measurement sequence consists of ten consecutive operations over the operating lever’s full travel within 4 ± 0,5 s. Five sequences shall be carried out, each interrupted by a pause. The complete operation shall be carried out five times.
The A-weighted sound level shall be recorded for each of the 25 measurement sequences, shall be within 2,0 dB(A) and is averaged for the calculation of the final result.
The test voltage shall be as laid down in points 2.3 to 2.3.2 in Part 1.
The sound pressure levels shall be measured under the conditions laid down in point 2.2 in Part 1.
The A-weighted sound pressure level emitted by the audible warning device(s) shall be measured at a distance of 7,0 m in front of the vehicle, the latter being placed on an open site, on ground as smooth as practicable and, if fitted with audible warning devices supplied with direct current, with its engine stopped.
The microphone of the measuring instrument shall be placed in the mean longitudinal plane of the vehicle.
The sound pressure level of the background noise and wind noise shall be at least 10 dB(A) below the sound to be measured.
The maximum sound pressure level shall be sought within the range of 0,5 and 1,5 m above the ground.
When measured under the conditions in points 2.1.1 to 2.1.5, the maximum sound level value as determined in point 2.1.6 shall be between 75 dB(A) and 112 dB(A).
In braking devices where the transmission is hydraulic, receptacles containing the reserve fluid shall be exempted from the requirements regarding ease of fluid-level checking of the UNECE regulation mentioned above.
For rim brakes, for the purposes of the special provisions relating to testing with wet brakes in the UNECE regulation mentioned above, the water shall be directed onto the part of the wheel rim providing the friction, with the nozzles positioned 10 to 30 mm to the rear of the brake blocks.
For vehicles with wheel rims widths of 45 mm or less (code 1.75), as regards braking performance with the front brake only when laden to its technically permissible maximum mass, the stopping distance or corresponding mean fully developed deceleration (MFDD) shall be as prescribed in the UNECE regulation mentioned above. If this requirement cannot be achieved because of limited adhesion between tyre and road surface, the stopping distance S ≤ 0,1 + V2/115 with corresponding mean fully developed deceleration 4,4 m/s2 shall be applied for a test on a vehicle laden to its technically permissible maximum mass using both braking devices simultaneously.
The protection against access to live parts shall be tested in accordance with the provisions laid down in Appendix 3 — Protection against direct contacts of parts under voltage.
they also comply with the protection degree IPXXB when separated without the use of tools;
they are located underneath the vehicle floor and are provided with a locking mechanism (e.g. screw locking, bayonet locking);
they are provided with a locking mechanism and other components shall first be removed with the use of tools in order to separate the connector; or
the voltage of the live parts becomes ≤ DC 60 V or ≤ AC 30 V (rms) within one second after the connector is separated.
Where barriers or enclosures cannot be physically accessed, opened, or removed unless other vehicle components are removed with the use of tools; or
Where barriers or enclosures are located underneath the vehicle floor.
The device shall enable connection to the earth ground before external voltage is supplied to the vehicle and shall retain this connection until after the exterior voltage is removed from the vehicle.
Compliance with these requirements may be demonstrated by using the connector specified by the vehicle manufacturer or by other analysis.
the vehicle can only use a dedicated charger that is protected when any single isolation fault arises;
the vehicle’s whole metallic body is protected when any single isolation fault arises; or
the vehicle cannot be charged without completely removing the traction battery pack from the vehicle.
If AC buses and DC buses are galvanically isolated from each other, isolation resistance between all high voltage busses and the electrical chassis shall have a minimum value of 100 Ω/V of the working voltage for DC buses, and a minimum value of 500 Ω/V of the working voltage for AC buses.
The measurements shall be conducted in accordance with the provisions laid down in Appendix 1 — Isolation resistance measurement method.
If AC high voltage buses and DC high voltage buses are galvanically connected isolation resistance between all high voltage busses and the electrical chassis shall have a minimum value of 500 Ω/V of the working voltage.
However, if all AC high voltage buses are protected by one of the two following measures, isolation resistance between the high voltage bus and the electrical chassis shall have a minimum value of 100 Ω/V of the working voltage:
double or more layers of solid insulators, barriers or enclosures that meet the requirements of points 2.1 to 2.1.6.3 independently, for example wiring harness; or
mechanically robust protections that have sufficient durability over vehicle service life such as motor housings, electronic converter cases or connectors;
The isolation resistance between the high voltage bus and the electrical chassis may be demonstrated by calculation, measurement or a combination of both.
The measurement shall be conducted according to Appendix 1 — Isolation resistance measurement method.
If the minimum isolation resistance requirement cannot be maintained over time, then protection shall be achieved by any of the following:
double or more layers of solid insulators, barriers or enclosures that meet the requirements of points 2.1 to 2.1.6.3 independently; or
on-board isolation resistance monitoring system together with a warning to the driver if the isolation resistance drops below the minimum required value. The isolation resistance between the high voltage bus of the coupling system for charging the REESS, which is not energised besides during charging the REESS, and the electrical chassis need not be monitored.
The correct functioning of the on-board isolation resistance monitoring system shall be tested as described in Appendix 2 — Confirmation method for function of on-board isolation resistance monitoring system.
The vehicle inlet or the recharge cable when permanently connected to the vehicle, intended to be conductively connected to the grounded external AC power supply and the electrical circuit that is galvanically connected to the vehicle inlet/recharge cable during charging of the REESS, shall have an isolation resistance between the high voltage bus and the electrical chassis of at least 1,0 MΩ when the charger coupler is disconnected. During the measurement, the traction battery may be disconnected.
The REESS shall not overheat in case of excessive current or, if the REESS is prone to overheating due to excessive current, it shall be equipped with one or more protective devices such as fuses, circuit breakers and/or main contactors.
When applicable, the vehicle manufacturer shall supply relevant data and analysis proving that overheating from excessive current is prevented without the use of protective devices.
Places for containing open type traction battery that may produce hydrogen gas shall be provided with a ventilation fan or a ventilation duct or any other suitable means to prevent the accumulation of hydrogen gas. Vehicles with open type framework that do not allow accumulation of hydrogen gas at such places are not required to have a ventilation fan or a ventilation duct.
Electrolyte shall not spill from the vehicle when the vehicle is tilted in any direction, leaned left or right against the ground or even when the REESS is put upside-down.
In case electrolyte is spilled from the REESS or its components due to other reasons, it shall not reach the driver nor any person on or around the vehicle during normal conditions of use, parked condition (i.e. also when the vehicle is parked on a slope) or any other normal functional operation.
The REESS and its components shall be installed in the vehicle in such a way so as to preclude the possibility of inadvertent or unintentional detachment or ejection of the REESS.
The REESS and its components shall not be ejected when the vehicle is tilted in any direction, leaned left or right against the ground or even when the REESS is put upside-down
In case of permanently connected charge cables, the requirement above is deemed to be met when use of the charge cable obviously prevents the use of the vehicle (e.g. cable is always routed over operator controls, rider’s saddle, driver’s seat, handle bar or steering wheel, or the seat covering the cable storage space needs to remain in open position).
If the electric propulsion system is equipped with a means to automatically reduce the vehicle propulsion power (e.g. powertrain malfunction operating mode), significant reductions shall be indicated to the rider.
If the state of charge in the REESS has a significant impact on vehicle driving performance (i.e. acceleration and drivability, to be evaluated by the Technical Service together with the vehicle manufacturer), a low energy content shall be indicated to the rider by an obvious device (e.g. a visual or audible signal). The indication used for point 4.2.1 shall not be used for this purpose.
It shall not be possible to activate the vehicle reverse control function whilst the vehicle is in forward motion.
The isolation resistance for each high voltage bus of the vehicle shall be measured or shall be determined by calculation using measurement values from each part or component unit of a high voltage bus (hereinafter referred to as the ‘divided measurement’).
The isolation resistance measurement shall be conducted by selecting an appropriate measurement method from among those listed in points 2.1 to 2.2, depending on the electrical charge of the live parts or the isolation resistance, etc.
The range of the electrical circuit to be measured shall be clarified in advance, using electrical circuit diagrams, etc.
Moreover, modification necessary for measuring the isolation resistance may be carried out, such as removal of the cover in order to reach the live parts, drawing of measurement lines, change in software, etc.
In cases where the measured values are not stable due to the operation of the on-board isolation resistance monitoring system, etc., necessary modification for conducting the measurement may be carried out, such as stopping of the operation of the device concerned or removing it. Furthermore, when the device is removed, it shall be proven, using drawings, etc., that it will not change the isolation resistance between the live parts and the electrical chassis.
Utmost care shall be exercised as to short circuit, electric shock, etc., for this confirmation might require direct operations of the high-voltage circuit.
An isolation resistance test instrument capable of applying a DC voltage higher than the working voltage of the high voltage bus shall be used.
An insulator resistance test instrument shall be connected between the live parts and the electrical chassis. Then, the isolation resistance shall be measured by applying a DC voltage at least half of the working voltage of the high voltage bus.
If the system has several voltage ranges (e.g. because of boost converter) in galvanically connected circuit and some of the components cannot withstand the working voltage of the entire circuit, the isolation resistance between those components and the electrical chassis can be measured separately by applying at least half of their own working voltage with those component disconnected.
The high voltage-bus shall be energised by the vehicle’s own REESS and/or energy conversion system and the voltage level of the REESS and/or energy conversion system throughout the test shall be at least the nominal operating voltage as specified by the vehicle manufacturer.
The voltmeter used in this test shall measure DC values and shall have an internal resistance of at least 10 MΩ.
The voltage is measured as shown in Figure 4-Ap1-1 and the high voltage bus voltage (Vb) is recorded. Vb shall be equal to or greater than the nominal operating voltage of the REESS and/or energy conversion system as specified by the vehicle manufacturer.
Measure and record the voltage (V1) between the negative side of the high voltage bus and the electrical chassis (see Figure 4-Ap1-1).
Measure and record the voltage (V2) between the positive side of the high voltage bus and the electrical chassis (see Figure 4-Ap1-1).
If V1 is greater than or equal to V2, insert a standard known resistance (Ro) between the negative side of the high voltage bus and the electrical chassis. With Ro installed, measure the voltage (V1’) between the negative side of the high voltage bus and the electrical chassis (see Figure 4-Ap1-2).
Calculate the electrical isolation (Ri) according to the following formula:
If V2 is greater than V1, insert a standard known resistance (Ro) between the positive side of the high voltage bus and the electrical chassis. With Ro installed, measure the voltage (V2’) between the positive side of the high voltage bus and the electrical chassis (see Figure 4-Ap1-3). Calculate the electrical isolation (Ri) according to the formula shown. Divide this electrical isolation value (in Ω) by the nominal operating voltage of the high voltage bus (in V).
Calculate the electrical isolation (Ri) according to the following formula:
The electrical isolation value Ri (in Ω) divided by the working voltage of the high voltage bus (in volts) results in the isolation resistance (in Ω/V).
Note: The standard known resistance Ro (in Ω) should be the value of the minimum required isolation resistance (in Ω/V) multiplied by the working voltage of the vehicle plus/minus 20 per cent (in V). Ro is not required to be precisely this value since the equations are valid for any Ro; however, a Ro value in this range should provide good resolution for the voltage measurements.U.K.
Insert a resistor that does not cause the isolation resistance between the terminal being monitored and the electrical chassis to drop below the minimum required isolation resistance value. The warning shall be activated.
Access probes to verify the protection of persons against access to live parts are given in Table 4-Ap3-1.
The access probe is pushed against any openings of the enclosure with the force specified in Table 4-Ap3-1. If it partly or fully penetrates, it is placed in every possible position, but in no case shall the stop face fully penetrate through the opening.
Internal barriers are considered part of the enclosure
A low-voltage supply of ≥ 40 V and ≤ 50 V in series with a suitable lamp shall be connected, if necessary, between the probe and live parts inside the barrier or enclosure.
The signal-circuit method shall also be applied to the moving live parts of high voltage equipment.
Internal moving parts may be operated or otherwise repositioned slowly, where this is possible.
The access probe shall not touch live parts.
If this requirement is verified by a signal circuit between the probe and live parts, the lamp shall not light up.
In the case of the test for IPXXB, the jointed test finger may penetrate to its 80 mm length, but the stop face (diameter 50 mm x 20 mm) shall not pass through the opening. Starting from the straight position, both joints of the test finger shall be successively bent through an angle of up to 90 degree with respect to the axis of the adjoining section of the finger and shall be placed in every possible position.
In case of the tests for IPXXD, the access probe may penetrate to its full length, but the stop face shall not fully penetrate through the opening.
Access probes for the tests for protection of persons against access to hazardous parts
Vehicles and their systems, parts and equipment critical for functional safety shall be capable of withstanding use under normal conditions and when serviced in accordance with the manufacturer’s recommendations, taking into account regular and scheduled maintenance and specific equipment adjustments carried out as per the clear and unambiguous instructions provided by the vehicle manufacturer in the instruction manual provided with the vehicle.
The normal use of a vehicle shall cover five years after first registration and a total distance travelled equal to 1,5 times the distance as specified in Annex VII to Regulation (EU) No 168/2013 in direct relation to the vehicle category in question and the emission stage (i.e. Euro level) according to which the vehicle is to be type-approved, however, the required distance shall not exceed 60 000 km for any vehicle category. Normal use does not include use under harsh conditions (e.g. extreme cold or heat) and road conditions inflicting damage to the vehicle due to its state of repair.
Vehicles of which the relevant front structure has been fully assessed in accordance with UNECE regulation No 26 are deemed to comply with the requirements on front protective structures.
Vehicles with a single front wheel and of which the external projections forward of the front axle have been assessed by means of the testing device in accordance with the relevant provisions of Annex II(C)(7) to Regulation (EU) 168/2013, are deemed to comply with the requirements on front protective structures.
Vehicles with more than one front wheel and of which the relevant front structure has not been fully assessed in accordance with UNECE regulation No 26 shall meet the following requirements:
At least two thirds of the maximum width of the forward section of the vehicle, measured at the location of the front axle or in front of it, shall consist of vehicle structure forward of the transverse line which is halfway between the front axle and the foremost point of the vehicle (i.e. the relevant structure, see Figure 6-1). The location, in terms of height, of this structure is relevant only above the floor line and below 2,0 m.
None of the vehicle structure forward of the line described in point 1.2.3.1 shall have pointed or sharp parts or projections which are directed outwards and which are likely to catch or significantly increase the severity of injuries or chance of lacerations to vulnerable road users in the event of a collision while the vehicle is being driven forward. The structure shall in any case exhibit no edges which can be contacted by a 100 mm sphere and which have a radius of curvature of less than 2,5 mm. Edges may however be blunted where their projection is less than 5,0 mm and there are no specific requirements for edges with a projection of less than 1,5 mm.
Vehicles which are not equipped with a device for reversing are exempted from the requirements on rear protective structures in points 1.2.5 to 1.2.6.2.1.
Vehicles which are equipped with a device for reversing and of which the relevant rear structure has been fully assessed in accordance with UNECE regulation No 26 are deemed to comply with the requirements applying to rear protective structures.
Vehicles which are equipped with a device for reversing and of which the relevant rear vehicle structure has not been fully assessed in accordance with UNECE regulation No 26 shall meet the following requirements:
At least two thirds of the width of the vehicle, as measured at the rear axle, shall consist of vehicle structure (i.e. the relevant structure, see Figure 6-2). The location, in terms of height, of this structure is relevant only above the floor line and below 2,0 m.
None of the structure rearward of the rear axle shall have pointed or sharp parts or projections which are directed outwards and which are likely to catch or significantly increase the severity of injuries or chance of lacerations to vulnerable road users in the event of a collision while the vehicle is being driven rearward. The structure shall in any case exhibit no edges which can be contacted by a 100 mm sphere and which have a radius of curvature of less than 2,5 mm. Edges may however be blunted where their projection is less than 5,0 mm and there are no specific requirements for edges with a projection of less than 1,5 mm.
In case of vehicles of categories L2e-U, L5e-B, L6e-BU and L7e-CU, the edges which can be contacted by a 100 mm sphere shall at least be blunted when their projection is 1,5 mm or more.
All batteries shall be fully charged at the start of the test.
The engine, if fitted, shall run at a speed not exceeding 30 % of the speed corresponding to its maximum power output. However, if this is proven not to be practicable due to specific engine control strategies, for instance in the case of electric hybrid vehicles, a realistic scenario shall be determined, taking into account the engine speeds and periodical or complete absence of a running engine during normal driving conditions. If the windscreen wiper system can meet the requirements without a running engine, the engine does not have to run at all.
The passing beam headlamps shall be switched on.
All fitted heating, ventilation, defrosting and demisting systems (regardless of their location in the vehicle) shall be operating at maximum electrical consumption.
The outer face of the windscreen shall be treated in accordance with points 2.1.8 and 2.1.9.
In order to verify that the requirements of point 1.1.2 are met, the windscreen wiper system shall be activated, taking into account point 2.1.9.1, and a trace of the wiper field shall be made and compared with a trace of vision area A, as determined in accordance with Appendix 1.
The technical service may agree to an alternative test procedure (e.g. virtual testing) to verify that the requirements of point 1.1.2 are met.
Vision area A is established in accordance with Annex 18 to UNECE regulation 43.
The test mixture referred to in point 2.1.9 of Part 2 shall comply with Appendix 4 to Annex III to Regulation (EU) No 1008/2010.
The R-point or seating reference point is established in accordance with Annex 3 to UNECE regulation No 17.
The dimensional relationships between primary reference marks on drawings and their position on the vehicle are established in accordance with Annex 4 to UNECE regulation No 125(18).
red: danger to persons or very serious damage to equipment is immediate or imminent,
yellow: outside normal operating limits, vehicle system malfunction, damage to vehicle likely, or other condition which may produce hazard in the longer term (caution),
green: safety, normal operating condition (except if blue or yellow is required).
The mandatory colours are given in point 2.1.10. It shall be verified that no inappropriate colour is used for tell-tales even if fitted cumulatively (e.g. red for normal cruise control operation or for ‘sport’ mode).
Figure 8-4
Hazard warning signal (control / tell-tale)
Two possibilities:
Identifying signal (Figure 8-4),
Tell-tale colour: red
or
Simultaneous operation of the separate direction indicator tell-tales (Figure 8-3), provided that these normally operate independently (see Note below Figure 8-3).
The model base consists of:
a base 50 mm square, this dimension being equal to nominal dimension ‘a’ in the original;
a base circle 56 mm in diameter having approximately the same area as the base square (1);
a second 50 mm-diameter circle is drawn within the base square (1);
a second square the tips of which lie on the base circle (2) and the sides of which are parallel to those of the base square (1);
and (6) two rectangles having the same area as the base square (1), their sides being at right angles to each other and each of them devised so as to divide the opposite sides of the base square into symmetrical points;
a third square the sides of which pass through the points of intersection of the base square (1) and the base circle (2) and are inclined at 45°, thus providing the greatest horizontal and vertical dimensions of the model base;
an irregular octagon formed by lines inclined at 30° to the sides of the square (7).
The base model is laid upon a grid the lower side of which measures 12,5 mm and coincides with the base square (1).
repeated automatically in sequence,
or
indicated by visible means and capable of being selected for viewing by the driver when seated in the driving position.
be installed on the vehicle symmetrically in relation to the longitudinal median plane,
be symmetrical to each other in relation to the longitudinal median plane (which includes being in stacked formation),
have identical colorimetric requirements, and
have identical photometric characteristics.
No red lamp shall be directly visible to an observer moving within Zone 1 in a transverse plane situated 25 m in front of the foremost part of the vehicle (see Figure 9-1).
No white lamp shall be directly visible to an observer moving within Zone 2 in a transverse plane situated 25 m behind the rearmost part of the vehicle (see Figure 9-2).
Zones 1 and 2 are limited in their respective planes as follows (see Figures 9-1 and 9-2):
Two horizontal planes which are 1,0 m and 2,2 m respectively above the ground;
Two vertical planes under an angle of 15° towards the front and rear of the vehicle respectively, and outward of the vehicle by reference to the longitudinal median plane of the vehicle. These planes contain, respectively, the vertical lines of intersection of the vertical planes parallel to the longitudinal median plane of the vehicle representing its overall width, and of the transverse vertical planes representing the overall length of the vehicle.
Figure 9-1
Direct visibility towards the front of the light-emitting surface of a lamp emitting red light
Figure 9-2
Direct visibility towards the rear of the light-emitting surface of a lamp emitting white light
daytime running lamps, or
passing-beam headlamps which are automatically switched on when the vehicle master control switch has been activated.
:
white
:
white
:
white
:
amber
:
red
:
white
:
red
:
white or yellow
:
red
:
white
:
amber
:
white
:
amber
:
amber or red
:
amber
:
amber or red
:
red
A source having a colour temperature of 2 856 K is used to check the above limits (International Commission on Illumination (ICI) Standard A).
passing-beam headlamp,
front position lamp,
direction indicators,
rear position lamp,
stop lamp,
rear registration plate lamp,
rear retro-reflector (non-triangular), and
side retro-reflectors (non-triangular).
driving-beam headlamp,
daytime running lamp,
front fog lamp,
hazard warning signal,
rear fog lamp,
reversing lamp, and
side marker lamps.
driving-beam headlamp,
passing-beam headlamp,
front position lamp,
direction indicators,
rear position lamp,
stop lamp,
rear registration plate lamp,
rear retro-reflector (non-triangular), and
side retro-reflectors (non-triangular).
daytime running lamp,
front fog lamp,
hazard warning signal,
rear fog lamp,
reversing lamp, and
side marker lamps.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single independent driving-beam headlamp may be fitted above, below or to one side of another front lamp. If these lamps are stacked on top of each other, the reference centre of the driving-beam headlamp shall be located within the longitudinal median plane of the vehicle. If they are side by side, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle;
a single independent driving-beam headlamp which is reciprocally incorporated with another front lamp shall be fitted in such a way that its reference centre lies within the longitudinal median plane of the vehicle. However, when the vehicle is also fitted with another front lamp alongside the driving-beam headlamp, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle;
two driving-beam headlamps of which either none, one or both are reciprocally incorporated with another front lamp shall be fitted in such a way that their reference centres are symmetrical in relation to the longitudinal median plane of the vehicle.
In height:
no specific requirements.
In length:
at the front of the vehicle. This requirement is considered to have been met if the light emitted does not disturb the driver either directly or indirectly by means of the rear-view mirrors and/or other reflective surfaces on the vehicle.
Distance:
in the case of a single independent driving-beam headlamp, the distance between the edge of the light-emitting surface and that of any single independent passing-beam headlamp shall not exceed 200 mm.
the visibility of the light-emitting surface, including in areas which do not appear to be illuminated in the direction of observation considered, shall be ensured within a divergent space defined by generating lines based on the perimeter of the light-emitting surface and forming an angle of not less than 5° with the reference axis of the driving-beam headlamp.
to the front; may move in line with the steering angle of any handlebars.
all driving-beam headlamps shall light up and extinguish simultaneously,
all driving-beam headlamps shall light up when the forward lighting mode is switched from passing-beam to driving-beam,
all driving-beam headlamps shall be extinguished simultaneously when the forward lighting mode is switched from driving-beam to passing-beam,
the passing-beam headlamps may remain lit at the same time as the driving-beam headlamps.
mandatory, if the driving beam headlamp is fitted (non-flashing blue tell-tale).
the combined value of the maximum intensity of all driving-beam headlamps which can be activated at the same time shall not exceed 430 000 cd, which corresponds to a reference value of 100.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single independent passing-beam headlamp may be fitted above, below or to one side of another front lamp. If lamps are stacked on top of each other, the reference centre of the passing-beam headlamp shall be located within the longitudinal median plane of the vehicle. If they are side by side, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
a single independent passing-beam headlamp which is reciprocally incorporated with another front lamp shall be fitted in such a way that its reference centre lies within the longitudinal median plane of the vehicle. However, when the vehicle is fitted with another front lamp alongside the passing-beam headlamp, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
two passing-beam headlamps of which either none, one or both are reciprocally incorporated with another front lamp shall be fitted in such a way that their reference centres are symmetrical in relation to the longitudinal median plane of the vehicle,
where there are two passing-beam headlamps, the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm.
In height:
a minimum of 500 mm and a maximum of 1 200 mm above the ground.
In length:
at the front of the vehicle. This requirement is considered to have been met if the light emitted disturbs the driver neither directly nor indirectly by reflection off the rear-view mirrors and/or other reflective surfaces on the vehicle.
Distance:
the distance between the edge of the light-emitting surface of a single independent passing-beam headlamp and that of any single independent driving-beam headlamp shall not exceed 200 mm.
α = 15° upwards and 10° downwards,
β = 45° to the left and to the right if there is only one passing-beam headlamp,
β = 45° outwards and 10° inwards if there are two passing-beam headlamps.
to the front; may move in line with the steering angle of any handlebars.
all passing-beam headlamps shall light up and extinguish simultaneously,
all passing-beam headlamps shall light up when the forward lighting mode is switched from driving-beam to passing-beam,
all passing-beam headlamps shall be extinguished simultaneously when the forward lighting mode is switched from passing-beam to driving-beam; however, the passing-beam headlamps may remain lit at the same time as the driving-beam headlamps.
optional (non-flashing green tell-tale).
passing-beam headlamps of which the lowest point of the light-emitting surface is 0,8 m or less above the ground shall be adjusted to an initial aiming inclination of between – 1,0 % and – 1,5 %. The precise value may be declared by the manufacturer,
passing-beam headlamps of which the lowest point of the light-emitting surface is between 0,8 m and 1,0 m above the ground shall be adjusted to an initial aiming of inclination between – 1,0 % and – 2,0 %. The precise value may be declared by the manufacturer,
passing-beam headlamps of which the lowest point of the light-emitting surface is 1,0 m or more above the ground shall be adjusted to an initial aiming inclination of between – 1,5 % and – 2,0 %. The precise value may be declared by the manufacturer,
for passing-beam headlamps with a light source with an objective luminous flux not exceeding 2 000 lumen and an initial inclination of between – 1,0 % and – 1,5 %, the vertical inclination shall remain between – 0,5 % and – 2,5 % under all loading conditions. The vertical inclination shall remain between – 1,0 % and – 3,0 % if the initial inclination is set between – 1,5 % and – 2,0 %. An external adjusting device may be used to satisfy the requirements, provided that no tools other than those provided with the vehicle are needed,
for passing-beam headlamps with a light source with an objective luminous flux exceeding 2 000 lumen and an initial inclination of between – 1,0 % and – 1,5 %, the vertical inclination shall remain between – 0,5 % and – 2,5 % under all loading conditions. The vertical inclination shall remain between – 1,0 % and – 3,0 % if the initial inclination is set between – 1,5 % and – 2,0 %. A headlamp levelling device may be used to satisfy the requirements of this point, provided that its operation is fully automatic and the response time is less than 30 seconds.
the inclination requirements in point 2.3.2.8 shall be verified as follows:
vehicle with its mass in running order, plus the mass of any propulsion batteries, and a mass of 75 kg simulating the driver,
vehicle laden to its technically permissible maximum mass with the mass distributed so as to attain the maximum axle loads as declared by the manufacturer for this loading condition,
vehicle with a mass of 75 kg simulating the driver and additionally laden so as to attain the maximum permissible rear axle load as declared by the manufacturer; however, the front axle load shall be as low as possible in this case,
before any measurement is made, the vehicle shall be rocked three times and then moved backwards and forwards for at least a complete wheel revolution.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single independent front position lamp may be fitted above, below or to one side of another front lamp. If lamps are stacked on top of each other, the reference centre of the front position lamp shall be located within the longitudinal median plane of the vehicle. If they are side by side, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
a single independent front position lamp which is reciprocally incorporated with another front lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle. However, when the vehicle is fitted with another front lamp alongside the front position lamp, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
two front position lamps of which either none, one or both are reciprocally incorporated with another front lamp shall be fitted so that their reference centres are symmetrical in relation to the longitudinal median plane of the vehicle,
where there are two front position lamps, the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm.
In height:
a minimum of 350 mm and a maximum of 1 200 mm above the ground.
In length:
at the front of the vehicle.
α = 15° upwards and 15° downwards; however, the downward angle may be reduced to 5° if the front position lamp is located less than 750 mm above the ground;
β = 80° to the left and to the right if there is only one front position lamp;
β = 80° outwards and 45° inwards if there are two front position lamps.
to the front; may move in line with the steering angle of any handlebars.
shall light up in compliance with point 2.1.10.
mandatory (a non-flashing green tell-tale or the vehicle’s instrument cluster illumination may be used to indicate the activation of the lamps as described in point 2.1.10).
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single independent daytime running lamp may be fitted above, below or to one side of another front lamp. If lamps are stacked on top of each other, the reference centre of the daytime running lamp shall be located within the longitudinal median plane of the vehicle. If they are side by side, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
a single independent daytime running lamp which is reciprocally incorporated with another front lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle. However, when the vehicle is fitted with another front lamp alongside the daytime running lamp, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
two daytime running lamps of which either none, one or both are reciprocally incorporated with another front lamp shall be fitted so that their reference centres are symmetrical in relation to the longitudinal median plane of the vehicle,
the inward edges of the light-emitting surfaces shall be at least 500 mm apart in the case of vehicles with an overall width exceeding 1 300 mm.
In height:
a minimum of 250 mm and a maximum of 1 500 mm above the ground.
In length:
at the front of the vehicle. This requirement is considered to have been met if the light emitted disturbs the driver neither directly nor indirectly by reflection off the rear-view mirrors and/or other reflective surfaces on the vehicle.
Distance:
if the distance between the front direction indicator lamp and the daytime running lamp is 40 mm or less, the electrical connections of the daytime running lamp on the relevant side of the vehicle shall be such that either:
it is switched off, or
its luminous intensity is reduced to a level not exceeding 140 cd;
during the entire period (both on and off cycle) of activation of the relevant front direction indicator lamp.
α = 10° upwards and 10° downwards,
β = 20° to the left and to the right if there is only one daytime running lamp,
β = 20° outwards and 20° inwards if there are two daytime running lamps.
to the front; may move in line with the steering angle of any handlebars.
all daytime running lamps shall light up when the master control switch is activated; however, they may remain off under the following conditions:
the automatic transmission control is in the park position,
the parking brake is activated, or
during the time prior to the vehicle being set in motion for the first time after each manual activation of the master control switch and the vehicle’s propulsion system,
daytime running lamps may be manually deactivated; however, this shall be possible only at a vehicle speed not exceeding 10 km/h. The lamps shall be automatically reactivated when the vehicle speed exceeds 10 km/h or when the vehicle has travelled more than 100 m,
daytime running lamps shall in each case be deactivated automatically when:
the vehicle is shut down by means of the master control switch,
the front fog lamps are activated,
the headlamps are activated, except when they are used to give intermittent luminous warnings at short intervals, and
in ambient lighting conditions of less than 1 000 lux where the indicated speed on the vehicle’s speedometer is still clearly legible (e.g. when speedometer illumination is always on) and the vehicle is not fitted with a non-flashing green tell-tale in compliance with point 2.3.3.7 or a dedicated green closed-circuit tell-tale for the daytime running lamp identified by the appropriate symbol. In such a case, the passing-beam headlamps and the lighting devices required in point 2.1.12 shall be automatically activated simultaneously within 2 seconds of the ambient lighting level dropping below 1 000 lux. If the ambient lighting conditions subsequently reach a level of at least 7 000 lux, the daytime running lamps shall be automatically reactivated, while the passing-beam headlamps and the lighting devices required in point 2.1.12 shall be deactivated simultaneously within five to 300 seconds (i.e. fully automatic light switching is required if the driver has no visible indication and stimulus to activate normal lighting when it is dark).
optional.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single independent front fog lamp may be fitted above, below or to one side of another front lamp. If lamps are stacked on top of each other, the reference centre of the front fog lamp shall be located within the longitudinal median plane of the vehicle. If they are side by side, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
a single independent front fog lamp which is reciprocally incorporated with another front lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle. However, when the vehicle is fitted with another front lamp alongside the front fog lamp, their reference centres shall be symmetrical in relation to the longitudinal median plane of the vehicle,
two front fog lamps of which either none, one or both are reciprocally incorporated with another front lamp, shall be fitted so that their reference centres are symmetrical in relation to the longitudinal median plane of the vehicle,
where there are two front fog lamps, the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm.
In height:
a minimum of 250 mm and a maximum of 800 mm above the ground,
no part of the light-emitting surface shall be higher than the top of the light-emitting surface of the highest placed passing-beam headlamp.
In length:
at the front of the vehicle. This requirement is considered to have been met if the light emitted disturbs the driver neither directly nor indirectly by reflection off the rear-view mirrors and/or other reflective surfaces on the vehicle.
α = 5° upwards and 5° downwards,
β = 45° to the left and to the right if there is only one front fog lamp,
β = 45° outwards and 10° inwards if there are two front fog lamps.
to the front; may move in line with the steering angle of any handlebars.
all front fog lamps shall light up and extinguish simultaneously,
it shall be possible to switch the front fog lamp on and off independently of the driving-beam headlamp, the passing-beam headlamp or any combination of these headlamps.
mandatory (non-flashing green tell-tale).
four,
six, if two side direction indicator lamps are fitted additionally and in compliance with all relevant requirements of UNECE regulation No 48 as prescribed for vehicle category M1.
two front direction indicator lamps of categories 11, 1, 1a or 1b and two rear direction indicator lamps of categories 12, 2a or 2b (i.e. two indicators on each side),
two side direction indicator lamps of categories 5 or 6 (i.e. one additional side direction indicator on each side) may be fitted in addition to the mandatory direction indicator lamps, provided that their installation meets all relevant requirements of UNECE regulation No 48 as prescribed for vehicle category M1.
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm,
the inward edges of the light-emitting surfaces of the front direction indicators shall be at least 240 mm apart in the case of vehicles with a single front wheel or in case the vehicle width does not exceed 1 000 mm,
the inward edges of the light-emitting surfaces of the front direction indicators shall be at least 500 mm apart in the case of vehicles with more than one front wheel and with a vehicle width exceeding 1 000 mm,
the inward edges of the light-emitting surfaces of the rear direction indicators shall be at least 180 mm apart in the case of vehicles with a single rear wheel or in case the vehicle width does not exceed 1 000 mm,
the inward edges of the light-emitting surfaces of the rear direction indicators shall be at least 500 mm apart in the case of vehicles with more than one rear wheel and with a vehicle width exceeding 1 000 mm,
there shall be a minimum distance between the light-emitting surface of a front direction indicator lamp and the nearest passing-beam headlamps of:
75 mm in the case of a minimum indicator intensity of 90 cd,
40 mm in the case of a minimum indicator intensity of 175 cd,
20 mm in the case of a minimum indicator intensity of 250 cd,
≤ 20 mm in the case of a minimum indicator intensity of 400 cd.
In height:
a minimum of 500 mm and a maximum of 1 500 mm above the ground.
In length:
no specific requirements.
α = 15° upwards and 15° downwards; however, the downward angle may be reduced to 5° if the direction indicator lamps are located less than 750 mm above the ground;
β = 80° outwards and 45° inwards (see Figure 9-3).
to the front; may move in line with the steering angle of any handlebars, as well as to the rear.
direction indicator lamps shall switch on independently of the other lamps. All direction indicator lamps on one side of a vehicle shall be switched on and off by means of one control.
mandatory, this may be optical, auditory or both,
if it is optical, the tell-tale shall be green and of the flashing type, which in the event of defective operation of any single front or rear direction indicator lamp shall be extinguished, remain alight without flashing or show a marked change of frequency,
if it is entirely auditory, it shall be clearly audible and display equivalent operating conditions as the optical tell-tale.
the following characteristics shall be checked with no load on the electrical system other than that needed for the operation of the engine (if any), following the activation of the master control switch and the activation of lighting devices which are switched on as a result of it.
the light flashing frequency shall be 90 ± 30 times per minute,
the direction indicator lamps on the same side of the vehicle shall flash at the same frequency, in phase and may occur either synchronously or alternately,
the first flash of the lamps shall start within one second and end within one-and-a-half seconds of the control being actuated,
in the event of a malfunction, other than a short circuit, of a front or rear direction indicator lamp the other lamp(s) indicating the same direction shall remain lit or continue to flash; however, in such a case the flashing frequency does not have to correspond to the prescribed value in this point.
in accordance with the requirements of point 2.3.6.1.
in accordance with the requirements of point 2.3.6.2.
In width:
in accordance with the requirements of point 2.3.6.3.1.
In height:
in accordance with the requirements of point 2.3.6.3.2.
In length:
in accordance with the requirements of point 2.3.6.3.3.
in accordance with the requirements of point 2.3.6.4.
in accordance with the requirements of point 2.3.6.5.
the hazard warning signal shall be activated by means of a separate control and shall be given by simultaneous operation of all direction indicator lamps. It shall be possible for the hazard warning signal to operate even when the master control switch has been deactivated and the vehicle’s on-board electronics system is switched off.
mandatory, if the hazard warning signal is provided (flashing red tell-tale),
if two separate green tell-tales have been provided for the left-hand side and right-hand side direction indicators, these tell-tales may flash simultaneously instead of the single red tell-tale.
the requirements of point 2.3.6.8 shall apply.
the light flashing frequency shall be 90 ± 30 times per minute,
all direction indicator lamps shall flash at the same frequency and in phase. Those on opposite sides of the vehicle shall flash synchronously while those on the same side of the vehicle may flash alternately,
the first flash shall start within one second and end within one-and-a-half seconds of the control being actuated,
the hazard warning signal may be automatically activated by vehicle systems such as the emergency braking signal or after a collision, and subsequently manually deactivated.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm.
no specific requirements.
In width:
a single rear position lamp shall be installed on the vehicle so that the reference centre of the rear position lamp shall be located within the longitudinal median plane of the vehicle,
two rear position lamps shall be installed on the vehicle so that the reference centres of the rear position lamps are symmetrical in relation to the longitudinal median plane of the vehicle,
in the case of vehicles with two rear wheels and an overall width exceeding 1 300 mm, the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm.
In height:
a minimum of 250 mm and a maximum of 1 500 mm above the ground.
In length:
at the rear of the vehicle.
α = 15° upwards and 15° downwards, however, the downward angle may be reduced to 5° if the rear position lamp is located less than 750 mm above the ground,
β = 80° to the left and to the right if there is only one rear position lamp,
β = 80° outwards and 45° inwards if there are two rear position lamps.
to the rear.
shall light up in compliance with point 2.1.10.
in accordance with the requirements of point 2.3.3.7.
one or two, in the case of vehicles with an overall width not exceeding 1 300 mm,
two, in the case of vehicles with an overall width exceeding 1 300 mm,
an additional stop lamp of category S3 or S4 (i.e. central high mounted stop lamp) may be fitted, provided that all relevant requirements of UNECE regulation No 48 applying to the installation of such stop lamps on vehicles of category M1 are met.
no specific requirements.
In width:
a single stop lamp shall be installed on the vehicle so that the reference centre of the stop lamp is located within the longitudinal median plane of the vehicle,
two stop lamps shall be installed on the vehicle so that the reference centres of the stop lamps are symmetrical in relation to the longitudinal median plane of the vehicle,
the inward edges of the light-emitting surfaces shall be at least 600 mm apart in the case of vehicles with two rear wheels and an overall width exceeding 1 300 mm,
the inward edges of the light-emitting surfaces shall be at least 400 mm apart in the case of vehicles with two rear wheels, an overall width not exceeding 1 300 mm and two stop lamps.
In height:
a minimum of 250 mm and a maximum of 1 500 mm above the ground.
In length:
at the rear of the vehicle.
α = 15° upwards and 15° downwards; however, the downward angle may be reduced to 5° if the stop lamp is located less than 750 mm above the ground,
β = 45° to the left and to the right if there is only one stop lamp,
β = 45° outwards and 10° inwards if there are two stop lamps.
to the rear.
shall light up at any service brake application.
prohibited.
vehicles may be fitted with an emergency stop signal as defined in point 2.28 of UNECE regulation No 48, provided that all relevant requirements of that regulation applying to such signals are met and the signal is activated and deactivated during conditions and/or decelerations as prescribed for vehicles of category M1,
vehicles may be fitted with a rear-end collision alert signal (RECAS) as defined in point 2.33 of UNECE regulation No 48, provided that all relevant requirements of that regulation applying to RECAS are met.
one or two.
no specific requirements.
In width:
in the case of vehicles intended and equipped for right-hand traffic, a single rear fog lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle or to the left side thereof,
in the case of vehicles intended and equipped for left-hand traffic, a single rear fog lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle or to the right side thereof,
in the case of vehicles intended and equipped for both left-hand and right-hand traffic, a single rear fog lamp shall be fitted so that its reference centre lies within the longitudinal median plane of the vehicle;
in the case of vehicles intended and equipped for left-hand and/or right-hand traffic, two rear fog lamps shall be installed on the vehicle so that the reference centres of the rear fog lamps are symmetrical in relation to the longitudinal median plane of the vehicle.
In height:
a minimum of 250 mm and a maximum of 1 000 mm above the ground; however, the latter value may be raised to 1 200 mm if the rear fog lamp is grouped with another lighting device.
In length:
at the rear of the vehicle.
Distance:
the distance between the edge of the light-emitting surface of the rear fog lamp and that of any stop lamp shall exceed 100 mm.
α = 5° upwards and 5° downwards,
β = 25° to the left and to the right.
to the rear.
all rear fog lamps shall light up and extinguish simultaneously,
it shall be possible to activate the rear fog lamp only when the driving-beam headlamp, the passing-beam headlamp or the front fog lamp is activated,
it shall be possible to switch off the rear fog lamp independently of any other lamp,
the rear fog lamp shall be automatically deactivated when:
the front position lamp is switched off, and
the vehicle is shut down by means of the master control switch,
once the rear fog lamp has been switched off or deactivated, it shall not be automatically or independently reactivated unless the control for switching it on has been manually operated.
mandatory (non-flashing yellow tell-tale).
one or two.
no specific requirements.
In width:
if there is a single reversing lamp: no specific requirements,
if there are two reversing lamps, these shall be installed on the vehicle so that the reference centres of the reversing lamps are symmetrical in relation to its longitudinal median plane.
In height:
a minimum of 250 mm and a maximum of 1 200 mm above the ground.
In length:
at the rear of the vehicle.
α = 15° upwards and 5° downwards,
β = 45° to the left and to the right if there is only one reversing lamp,
β = 45° outwards and 30° inwards if there are two reversing lamps.
to the rear.
the reversing lamp shall emit light when the reversing device is engaged and the master control switch has been activated,
the reversing lamp shall not emit any light unless both conditions mentioned above satisfied.
optional.
in the absence of prescriptions for reversing lamp lighting devices which can be type-approved for vehicles of category L, the reversing lamp shall be type-approved according to UNECE regulation No 23.
one or more.
such that the rear registration lamp illuminates the intended space for the rear registration plate.
shall light up in compliance with point 2.1.10.
the requirements of point 2.3.3.7 shall apply.
one or two,
two in the case of vehicles with an overall width exceeding 1 000 mm,
additional rear retro-reflecting devices and materials are permitted provided that they do not impair the effectiveness of the mandatory lighting and light-signalling devices.
one or two rear retro-reflectors of Class IA or IB.
In width:
if there is a single rear retro-reflector, this shall be installed on the vehicle so that the reference centre of the rear retro-reflector is located within its longitudinal median plane,
if there are two rear retro-reflectors, these shall be installed on the vehicle so that the reference centres of the rear retro-reflectors are symmetrical in relation to its longitudinal median plane,
if there are two rear retro-reflectors, the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm.
In height:
a minimum of 250 mm and a maximum of 900 mm above the ground.
In length:
at the rear of the vehicle.
α = 10° upwards and 10° downwards; however, the downward angle may be reduced to 5° if the rear retro-reflector is located less than 750 mm above the ground,
β = 30° to the left and to the right if there is only one rear retro-reflector,
β = 30° outwards and 30° inwards if there are two rear retro-reflectors.
to the rear.
the light-emitting surface of a retro-reflector may have parts in common with any other red lamp installed at the rear of the vehicle.
one or two on each side.
a side retro-reflector of Class IA or IB shall be fitted within the first third and/or the last third of the vehicle’s overall length,
additional side retro-reflective devices and materials are permitted, provided that they do not impair the effectiveness of the mandatory lighting and light-signalling devices.
In width:
no specific requirements.
In height:
a minimum of 250 mm and a maximum of 900 mm above the ground; however, the latter value may be raised to 1 200 mm if the side retro-reflector is grouped with another lighting device.
In length:
no specific requirements.
α = 10° upwards and 10° downwards; however, the downward angle may be reduced to 5° if the side retro-reflector is located less than 750 mm above the ground,
β = 45° to the front and to the rear.
to the side.
one or two on each side.
a side marker lamp of Class SM1 or SM2 may be fitted within the first third and/or the last third of the vehicle’s overall length.
In width:
no specific requirements.
In height:
a minimum of 250 mm and a maximum of 1 500 mm above the ground.
In length:
no specific requirements.
α = 10° upwards and 10° downwards; however, the downward angle may be reduced to 5° if the side retro-reflector is located less than 750 mm above the ground;
β = 30° to the front and to the rear.
to the side.
shall light up together with the lighting devices referred to in point 2.1.10,
may be such that the side marker lamps flash at the same frequency, in phase and either synchronously or alternately with the direction indicator lamps installed on the same side of the vehicle.
in accordance with the requirements of point 2.3.3.7.
in the absence of prescriptions for side marker lamp lighting devices which can be type-approved for vehicles of category L, the lamps shall be type-approved according to UNECE regulation No 91.
In this case, specific requirements of UNECE regulation No 48 shall not be substituted or waived on the basis of differences in, or an absence of, specific provisions in this Annex (e.g. installation of headlamp cleaning devices, manual headlamp levelling device).
two or three;
the side-car shall be equipped with one front position lamp;
the motorcycle shall be equipped with one front position lamp; however, it may be equipped with two front position lamps, provided that these are fitted in accordance with the relevant provisions of UNECE regulation No 53 as prescribed for vehicle category L3e (solo motorcycle).
the position shall be as specified in UNECE regulation No 53 for vehicle category L3e, except as follows:
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm (this limit value does not apply to a second front position lamp fitted to the motorcycle).
the front position lamps on the side-car and motorcycle may be considered as a pair.
two or three,
the side-car may be equipped with one daytime running lamp,
the motorcycle may be equipped with one daytime running lamp; however, it may be equipped with two daytime running lamps, provided that these are fitted in accordance with the relevant provisions of UNECE regulation No 53 as prescribed for vehicle category L3e (solo motorcycle).
the position shall be as specified in UNECE regulation No 53 for vehicle category L3e, except as follows:
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm (this limit value does not apply to a second daytime running lamp fitted to the motorcycle).
the daytime running lamps on the side-car and motorcycle may be considered as a pair.
the position shall be as specified in UNECE regulation No 53 for vehicle category L3e, except as follows:
In width (concerning all electrically connected direction indicator lamps):
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm,
the inward edges of the light-emitting surfaces shall be at least 600 mm apart,
there shall be a minimum distance between the light-emitting surface of a front direction indicator lamp and the nearest passing-beam headlamps of:
75 mm in the case of a minimum indicator intensity of 90 cd,
40 mm in the case of a minimum indicator intensity of 175 cd,
20 mm in the case of a minimum indicator intensity of 250 cd,
≤ 20 mm in the case of a minimum indicator intensity of 400 cd,
both front direction indicator lamps shall have a comparable level of photometric performance, as shall both rear direction indicator lamps.
In length (this point applies only to the side of the side-car):
the front direction indicator lamp shall be located on the front half of the side-car and the rear direction indicator lamp shall be located on the rear half.
the horizontal angles are clarified as follows: see Figure 9-4.
two or three,
the side-car shall be equipped with one rear position lamp,
the motorcycle shall be equipped with one rear position lamp; however, it may be equipped with two rear position lamps provided that these are fitted in accordance with the relevant provisions of UNECE regulation No 53 as prescribed for vehicle category L3e (solo motorcycle).
the position shall be as specified in UNECE regulation No 53 as prescribed for vehicle category L3e, except as follows:
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm (this limit value does not apply to a second rear position lamp fitted to the motorcycle).
the rear position lamps on the side-car and motorcycle may be considered as a pair.
two or three;
the side-car shall be equipped with one stop lamp;
the motorcycle shall be equipped with one stop lamp; however, it may be equipped with two stop lamps provided that these are fitted in accordance with the relevant provisions of UNECE regulation No 53 as prescribed for vehicle category L3e (solo motorcycle).
the position shall be as specified in UNECE regulation No 53 for vehicle category L3e, except as follows:
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm (this limit value does not apply to a second stop lamp fitted to the motorcycle).
the stop lamps on the side-car and motorcycle may be considered as a pair.
two or three;
the side-car shall be equipped with one rear retro-reflector;
the motorcycle shall be equipped with one rear retro-reflector, or two, provided that these are fitted in accordance with the relevant provisions of UNECE regulation No 53 as prescribed for vehicle category L3e (solo motorcycle);
additional rear retro-reflecting devices and materials are permitted provided that they do not impair the effectiveness of the mandatory lighting and light-signalling devices.
the position shall be as specified in UNECE regulation No 53 for vehicle category L3e, except as follows:
In width:
the lateral distance between the outward edges of the light-emitting surfaces and the outermost edges of the vehicle shall not exceed 400 mm (this limit value does not apply to a second rear retro-reflector fitted to the motorcycle or any additional rear retro-reflecting devices and materials fitted to the vehicle).
the rear retro-reflectors on the side-car and motorcycle may be considered as a pair.
Figure 9-5
Direct visibility towards the front of the light-emitting surface of a lamp emitting red light
Figure 9-6
Direct visibility towards the rear of the light-emitting surface of a lamp emitting white light
The R-point of a saddle shall be taken as declared by the vehicle manufacturer and duly justified by means of appropriate vehicle design criteria taking into account the characteristics of a 50th percentile male manikin (i.e. Hybrid III anthropomorphic test device) and its hip pivot point.
The R-point of a seat shall be established in accordance with the provisions in Appendix 3 to Part 2 of Annex VII to this Regulation.
point J1 is determined in relation to the R-point by means of the following three segments:
:
segments of torso reference line measured from the R-point upwards over a length of 530 mm;
:
segment perpendicular to the longitudinal median plane of the vehicle measured from point Z in the direction of the anchorage and having a length of 120 mm;
:
segment perpendicular to the plane defined by segments RZ and ZX measured from point X forwards over a length of 60 mm;
point J2 is determined by symmetry with point J1 about the longitudinal plane vertically crossing the torso reference line of the relevant seat.
The upper effective safety belt anchorage point shall lie below the plane FN that is perpendicular to the longitudinal median plane of the seating position and forms an angle of 65° with the torso reference line. For rear seats, this angle may be reduced to 60°. The plane FN may therefore not be perfectly horizontal and shall intersect the torso reference line at a point D so that:
However, if S does not exceed 200 mm:
DR = 675 mm.
The upper effective safety belt anchorage point shall also lie behind plane FK perpendicular to the longitudinal median plane of the seat and intersect the torso reference line at an angle of 120° at a point B so that:
If S is not less than 280 mm, the vehicle manufacturer may opt to use:
The value S shall not be less than 140 mm.
The upper effective safety belt anchorage point shall also be located behind a vertical plane that is perpendicular to the longitudinal median plane of the vehicle and passes through the R-point.
The upper effective safety belt anchorage point shall also be located above the horizontal plane passing through the point C.
Point C is located 450 mm vertically above the R-point.
However, if distance S is 280 mm or more and if the vehicle manufacturer did not opt to use the alternative formula for BR in point 1.5.3.2, the vertical distance of 500 mm between point C and the R-point shall apply.
More than one actual upper safety belt anchorage point may be fitted, provided that all resulting effective safety belt anchorage points meet the requirements of points 1.5.3 to 1.5.3.5.
If the height of the upper safety belt anchorage point is manually adjustable without the use of any tools, all selectable upper safety belt anchorage point positions and the resulting effective safety belt anchorage points shall comply with the requirements of points 1.5.3 to 1.5.3.5. In this case, the permitted area as defined above may be enlarged by shifting it 80 mm upwards and downwards in the vertical direction; however, the permitted area remains bounded by the horizontal plane passing through point C (See Figure 11-P2-1).
both upper safety belt effective anchorage points shall be located above the horizontal plane passing through the point C;
both upper safety belt effective anchorage points shall be located behind the transverse plane passing through the torso reference line;
where there is a single actual safety belt anchorage point (i.e. both ends of the safety belt are to be attached to a single anchorage point), this shall be located within the area common to two dihedrals bounded by vertical lines passing through the points J1 and J2, and for each point forming an angle of 30° horizontally between two vertical planes which are in turn related to the two vertical longitudinal planes intersecting both J1 and J2 and forming an outward angle of 10° and an inward angle of 20° with those longitudinal planes. (See Figure 11-2);
where there are two separate actual safety belt anchorage points, these shall be located within each of the respective areas formed by dihedrals bounded by vertical lines passing through the points J1 and J2, and for each point forming an angle of 30° horizontally between two vertical planes which are in turn related to the two vertical longitudinal planes intersecting both J1 and J2 and forming an outward angle of 10° and an inward angle of 20° with those longitudinal planes. (See Figure 11-P2-2). In addition, the two anchorage points shall be so located that they are no more than 50 mm apart in any direction when one of the points is mirrored in relation to the vertical longitudinal plane passing through the R-point of the seating position in question.
The tests may be carried out on either a vehicle structure or a fully finished vehicle.
The windows and doors may be installed and placed in the open or closed position.
Any normally fitted component which is likely to contribute to the overall structural integrity of the vehicle may be installed.
Outboard front seating positions:
In the case of safety belts incorporating a inertia reel retractor attached to a separate lower side anchorage point:
the anchorages are subjected to the test laid down in points 3.4.1 to 3.4.1.3 in which the forces are applied to them by means of a device reproducing the geometry of a three-point belt incorporating an inertia reel retractor attached to a lower side anchorage and a D-ring acting through the upper anchorage.
In the case of safety belts not incorporating a inertia reel retractor attached to a separate lower side anchorage point:
the anchorages shall be subjected to the test laid down in points 3.4.2 to 3.4.2.2. in which the forces are applied to them by means of a device reproducing the geometry of a three-point non-inertia reel belt;
the lower anchorages shall in addition be subjected to the test laid down in points 3.4.3 to 3.4.3.1 in which the forces are transferred to the lower anchorages by means of a device representing a lap belt;
the two tests may be carried out on two different structures at the request of the manufacturer.
If the height of the upper safety belt anchorage point is manually adjustable without the use of any tools, it shall be set in the least favourable (i.e. worst-case) position as decided by the technical service.
In the case of multiple upper safety belt anchorage points for use with a special-type (e.g. harness-type) safety belt, these shall all be subjected to the test required in points 3.4.5 to 3.4.5.2, in which the forces are applied to them by means of a device reproducing the geometry of the type of safety belt intended to be attached to those anchorages.
Rear outboard seating positions and/or centre seating positions:
In the case of three-point safety belts incorporating a inertia reel retractor attached to a separate lower side anchorage point:
the anchorages are subjected to the test laid down in points 3.4.1 to 3.4.1.3 in which the forces are applied to them by means of a device reproducing the geometry of a three-point belt incorporating an inertia reel retractor attached to a lower side anchorage and a D-ring acting through the upper anchorage.
In the case of three-point safety belts not incorporating a inertia reel retractor attached to a separate lower side anchorage point:
the anchorages shall be subjected to the test laid down in points 3.4.2 to 3.4.2.2 in which the forces are applied to them by means of a device reproducing the geometry of a three-point non-inertia reel belt;
the lower anchorages shall in addition be subjected to the test laid down in points 3.4.3 to 3.4.3.1 in which the forces are transferred to the lower anchorages by means of a device representing a lap belt;
at the request of the manufacturer, the two tests may be carried out on two different structures.
If the height of the upper safety belt anchorage point is manually adjustable without the use of any tools, it shall be set in the least favourable (i.e. worst-case) position as decided by the technical service.
In the case of multiple upper safety belt anchorage points for use with a special-type (e.g. harness-type) safety belt, they shall all be subjected to the test required in points 3.4.5. to 3.4.5.2., in which the forces are applied to them by means of a device reproducing the geometry of the type of safety belt intended to be attached to those anchorages.
Outboard front seating positions:
In the case of two-point or lap safety belts:
not permitted.
Rear outboard seating positions and/or centre seating positions:
In the case of two-point or lap safety belts:
the lower anchorages shall be subjected to the test laid down in points 3.4.3 to 3.4.3.1 in which the forces are transferred to the lower anchorages by means of a device representing a lap belt.
The R-point of a saddle shall be taken as declared by the vehicle manufacturer and duly justified by means of appropriate vehicle design criteria taking into account the characteristics of a 50th percentile male manikin (i.e. Hybrid III anthropomorphic test device) and its hip pivot point.
The R-point of a seat shall be established in accordance with Appendix 3 to Part 2 of Annex VII to this Regulation.
for seats:
by submitting representative parts of the vehicle to a deceleration of 10 g in forward direction for at least 20 ms or
by performing the test in points 3.4.4 to 3.4.4.2 of Part 2 of Annex XII,
for saddles:
by exerting in the forward direction, in its centre of gravity, a force equal to ten times the weight of the complete saddle in question.
the tyres are type-approved according to Council Directive 92/23/EEC(24), Regulation (EC) No 661/2009 of the European Parliament and of the Council(25) or UNECE regulation No 106; 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 on the axle where the axle is equipped with one tyre only;
half of the maximum permissible mass on the axle where the axle is equipped with two tyres in single formation;
0,54 times the maximum permissible mass on the axle where the axle is equipped with two tyres in dual (twin) formation;
0,27 times the maximum permissible mass on the axle where the axle is equipped with two sets of tyres in dual (twin) formation;
with reference to the maximum permissible mass on each axle as declared by the vehicle manufacturer.
the two vertical planes touching the two lateral edges of the plate and forming an angle measured outwards of 30° 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° to the horizontal,
the horizontal plane through the lower edge of the plate.
the two vertical planes touching the two lateral edges of the plate and forming an angle measured outwards of 30° 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° to the horizontal,
the plane touching the lower edge of the plate and forming an angle measured downwards of 15° to the horizontal.
interior zone 1:
in front of the torso reference line in relation to the seating position of the driver,
above the R-point of the seating position of the driver,
interior zone 2:
in front of the torso reference line in relation to the seating position of the driver,
below the R-point of the seating position of the driver, and
interior zone 3:
behind the torso reference line in relation to the seating position of the driver,
in front of the torso reference line in relation to the seating position of the rearmost passenger,
above the R-point of the lowest seating position other than that of the driver.
plane X-X’ remains parallel to the longitudinal median plane of the vehicle, and
axis X can be rotated above and below the horizontal through angles of up to 30°.
Maximum vehicle speed and/or maximum power shall be limited by adjusting two or more of the following:
the properties, timing or presence of the spark igniting the fuel/air mixture in the cylinder(s),
the amount of air intake of the engine,
the amount of fuel intake of the engine, and
the electronically and/or mechanically controlled output rotation speed of the drive-train, such as clutch, gearbox or final drive.
Maximum vehicle speed and/or maximum power shall be limited by adjusting two or more of the following:
the amount of air intake of the engine,
the amount of fuel intake of the engine, and
the electronically and/or mechanically controlled output rotation speed of the drive-train, such as clutch, gearbox or final drive.
Maximum vehicle speed and/or maximum power shall be limited by means of two or more of the following:
reduction of the maximum power output of one or more electric motors based on the vehicle or rotation speed as sensed internally to the electric motor,
reduction of the maximum power output of one or more electric motors based on the actual vehicle speed as sensed fully externally to the electric motor, and
physical vehicle speed limitation by means of internal or external components such as a maximum achievable revolution speed of an electric motor.
Maximum vehicle speed and/or maximum power shall be limited by two or more separate means, which shall as far as possible be based on the abovementioned adjustment, reduction or physical speed limitation principles.
Report published by the Commission in 2006 entitled ‘CARS 21: A Competitive Automotive Regulatory System for the 21st century’.
Not yet published in the Official Journal.
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