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- Point in Time (01/07/2013)
- Original (As adopted by EU)
Directive 2003/97/EC of the European Parliament and of the Council of 10 November 2003 on the approximation of the laws of the Member States relating to the type-approval of devices for indirect vision and of vehicles equipped with these devices, amending Directive 70/156/EEC and repealing Directive 71/127/EEC (Text with EEA relevance) (repealed)
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The following information, if applicable, must be supplied in triplicate and must include a list of contents. Any drawings must be supplied in appropriate scale and in sufficient detail on size A4 on a folder of A4 format. Photographs, if any, must show sufficient detail.
Notification concerning the grant, refusal, withdrawal or extension of EC component type-approval for a type of device for indirect vision
Name of Administration
EC component type-approval No: …
in the case of a mirror Class (I, II, III, IV, V, VI)(1) …
in the case of a camera/monitor or other device for indirect vision (S)(1) …
…
…
…
…
(Descriptive notes, drawings, diagrams and plans)
These documents must be supplied to the competent authorities of the other Member States at their express request.
Remarks, if any, particularly as regards restrictions on use and/or conditions for fitting: …
…
…
…
…
…
(Signature)
The following information, if applicable, must be supplied in triplicate and must include a list of contents. Any drawings must be supplied in appropriate scale and in sufficient detail on size A4 on a folder of A4 format. Photographs, if any, must show sufficient detail.
Articles 4(2) and 10 of Council Directive 70/156/EEC of 6 February 1970 on the approximation of the laws of the Member States relating to the type-approval of motor vehicles and their trailers
Name of Administration
EC type-approval No: … extension(4)
…
…
…
…
…
…
…
…
…
…
…
drawings showing the mountings of the devices for indirect vision;
drawings and plans showing the mounting positions and characteristics of the part of the structure where the devices for indirect vision are mounted;
general view from the front, the rear and the passenger compartment showing where the devices for indirect vision are fitted.
These documents must be supplied to the competent authorities of the other Member States at their express request.
The mirror bearing the EC component type-approval mark shown above is a Class I mirror (interior rear-view), which has been approved in France (e2) under number 03*3500.
The mirror bearing the EC component type-approval mark shown above is a Class II mirror (exterior rear-view), which has been approved in the Netherlands (e4) under the number 03*1870.
The mirror bearing the EC component type-approval mark shown above is a Class V mirror (close proximity), which has been approved in Greece (e23) under the number 03*3901.
The mirror bearing the EC component type-approval mark shown above is a Class IV mirror (exterior rear-view — wide angle), which has been approved in Italy (e3) under the number 03*1248.
Explanation:
The device for indirect vision bearing the EC component type-approval mark shown above is a device for indirect vision (S), other than a mirror which has been approved in the Netherlands (e4) under number 03*3002.
Textual Amendments
F1 Inserted by Commission Directive 2005/27/EC of 29 March 2005 amending, for the purposes of its adaptation to technical progress, Directive 2003/97/EC of the European Parliament and of the Council, concerning the approximation of the laws of the Member States relating to the type-approval of devices for indirect vision and of vehicles equipped with these devices (Text with EEA relevance).
The relevant parts of Annex III to Directive 77/649/EEC are applicable.
Seat back angle | Horizontal coordinates |
---|---|
(in degrees) | ΔX |
25 | 68 mm |
The table below indicates the further corrections, from the ocular position with a fixed seat-back angle of 25 degrees, to be made to the X and Z coordinates of the ocular points when the design seat-back angle is not 25 degrees.
Seat-back angle | Horizontal coordinates | Vertical coordinates |
---|---|---|
(in degrees) | ΔX | ΔZ |
5 | – 186 mm | 28 mm |
6 | – 177 mm | 27 mm |
7 | – 167 mm | 27 mm |
8 | – 157 mm | 27 mm |
9 | – 147 mm | 26 mm |
10 | – 137 mm | 25 mm |
11 | – 128 mm | 24 mm |
12 | – 118 mm | 23 mm |
13 | – 109 mm | 22 mm |
14 | – 99 mm | 21 mm |
15 | – 90 mm | 20 mm |
16 | – 81 mm | 18 mm |
17 | – 72 mm | 17 mm |
18 | – 62 mm | 15 mm |
19 | – 53 mm | 13 mm |
20 | – 44 mm | 11 mm |
21 | – 35 mm | 9 mm |
22 | – 26 mm | 7 mm |
23 | – 18 mm | 5 mm |
24 | – 9 mm | 3 mm |
25 | 0 mm | 0 mm |
26 | 9 mm | – 3 mm |
27 | 17 mm | – 5 mm |
28 | 26 mm | – 8 mm |
29 | 34 mm | – 11 mm |
30 | 43 mm | – 14 mm |
31 | 51 mm | – 18 mm |
32 | 59 mm | – 21 mm |
33 | 67 mm | – 24 mm |
34 | 76 mm | – 28 mm |
35 | 84 mm | – 32 mm |
36 | 92 mm | – 35 mm |
37 | 100 mm | – 39 mm |
38 | 108 mm | – 43 mm |
39 | 115 mm | – 48 mm |
40 | 123 mm | – 52 mm] |
The dimensions of the reflecting surface must be such that it is possible to inscribe thereon a rectangle one side of which is 40 mm and the other ‘a’ mm in length, where
and r is the radius of curvature.
a rectangle 40 mm high the base length of which, measured in millimetres, has the value ‘a’;
a segment which is parallel to the height of the rectangle and the length of which, expressed in millimetres, has the value ‘b’.
The contours of the reflecting surface must be of simple geometric form and its dimensions such that it provides, if necessary in conjunction with a Class II exterior mirror, the field of vision specified in point 5.4 of Annex III.
The contours of the reflecting surface must be of simple geometric form and its dimensions such that the mirror provides the field of vision specified in point 5.5 of Annex III.
The contours of the reflecting surface must be of simple geometric form and its dimensions such that the mirror provides the field of vision specified in point 5.6 of Annex III.
In the case of reflecting surfaces with a changeable degree of reflection, the ‘day’ position must allow the colours of the signals used for road traffic to be recognised. The value of the normal coefficient of reflection in the ‘night’ position must be not less than 4 %.
This derogation also applies to the attachments of mirrors (attachment plates, arms, swivel joints, etc.) which are situated less than 2 m from the ground and which do not project beyond the overall width of the vehicle, measured in the transverse plane passing through the lowest mirror attachments or any other point forward of this plane if this configuration produces a greater overall width.
In such cases, a description specifying that the mirror must be mounted so as to conform to the abovementioned conditions for the positioning of its attachments on the vehicle must be provided.
Where advantage is taken of this derogation, the arm shall be indelibly marked with the symbol
and the type-approval certificate shall be endorsed to this effect.
The test according to this paragraph is not to be carried out for devices integrated in the bodywork of the vehicle and providing a frontal deflecting area of an angle not more than 45 ° measured in relation to the longitudinal median plane of the vehicle, or devices not protruding more than 100 mm measured beyond the circumscribing bodywork of the vehicle according to 74/483/EEC.
The end of the pendulum comprises a hammer formed by a rigid sphere with a diameter of 165 ± 1 mm having a 5 mm thick rubber covering of Shore A hardness 50.
A device is provided which permits determination of the maximum angle assumed by the arm in the plane of release.
A support firmly fixed to the structure of the pendulum serves to hold the specimens in compliance with the impact requirements specified in point 4.2.2.6.
The displacement must be no greater than is strictly necessary for the execution of the test; it must be limited in such a way that:
either the sphere delimiting the hammer remains at least tangential to the cylinder as defined in point 1.4;
or the point of contact with the hammer is located at least 10 mm from the periphery of the reflecting surface.
Test 1:The points of impact shall be as defined in point 4.2.2.3. The impact must be such that the hammer strikes the mirror on the reflecting surface side.
Test 2: Point of impact on the edge of the protective housing, such that the impact produced makes an angle of 45 ° with the plane of the reflecting surface and is situated in the horizontal plane passing through the centre of that surface. The impact must occur on the reflecting surface side.
Test 1: The point of impact shall be as defined in point 4.2.2.3 or 4.2.2.4. The impact must be such that the hammer strikes the mirror on the reflecting surface side.
Test 2: The point of impact shall be as defined in point 4.2.2.3 or 4.2.2.4. The impact must be such that the hammer strikes the mirror on the side opposite to the reflecting surface.
Where Class II or III rear-view mirrors are fixed to the same mounting as Class IV rear-view mirrors, the abovementioned tests shall be executed on the lower mirror. Nevertheless, the technical service responsible for testing may repeat one or both of these tests on the upper mirror if this is less than 2 m from the ground.
It has to be proved that the device meets the following requirements:
A ‘spherometer’ similar to the one described in Figure 3 having the indicated distances between the tracing pin of the dial gauge and the fixed legs of the bar is used.
‘r’ expressed in mm is calculated from the formula:
where:
:
the radius of curvature at the first measuring point,
:
the radius of curvature at the second measuring point,
:
the radius of curvature at the third measuring point.
The apparatus shall consist of a light source, a holder for the test sample, a receiver unit with a photodetector and an indicating meter (see Figure 4), and means of eliminating the effects of extraneous light.
The receiver may incorporate a light-integrating sphere to facilitate measuring the reflectance of non-flat (convex) mirrors (see Figure 5).
The light source shall consist of a CIE standard source A and associated optics to provide a near-collimated light beam. A voltage stabiliser is recommended in order to maintain a fixed lamp voltage during instrument operation.
The receiver shall have a photodetector with a spectral response proportional to the photopic luminosity function of the CIE (1931) standard colorimetric observer (see table). Any other combination of illuminate-filter-receptor giving the overall equivalent of CIE standard illuminate A and photopic vision may be used. When an integrating sphere is used in the receiver, the interior surface of the sphere shall be coated with a matt (diffusive) spectrally non-selective white coating.
The angle of the incident beam (θ) should preferably be 0,44 ± 0,09 rad (25 ± 5 °) from the perpendicular to the test surface and shall not exceed the upper limit of the tolerance (i.e. 0,53 rad or 30 °). The axis of the receptor shall make an angle (θ) with this perpendicular equal to that of the incident beam (see Figure 4). The incident beam upon arrival at the test surface shall have a diameter of not less than 13 mm (0,5 in.). The reflected beam shall not be wider than the sensitive area of the photodetector, shall not cover less than 50 % of such area, and as nearly as possible shall cover the same area segment as used during instrument calibration.
When an integrating sphere is used in the receiver section, the sphere shall have a minimum diameter of 127 mm (5 in.). The sample and incident beam apertures in the sphere wall shall be of such a size as to admit the entire incident and reflected light beams. The photodetector shall be so located as not to receive direct light from either the incident or the reflected beam.
The photodetector output as read on the indicating meter shall be a linear function of the light intensity of the photosensitive area. Means (electrical and/or optical) shall be provided to facilitate zeroing and calibration adjustments. Such means shall not affect the linearity or the spectral characteristics of the instrument. The accuracy of the receptor-indicator unit shall be within ± 2 % of full scale, or ± 10 % of the magnitude of the reading, whichever is the smaller.
The mechanism shall be capable of locating the test sample so that the axes of the source arm and receptor intersect at the reflecting surface. The reflecting surface may lie within or at either face of the mirror sample, depending on whether it is a first-surface, second-surface or prismatic ‘flip’-type mirror.
In the direct calibration method, air is used as the reference standard. This method is applicable for those instruments, which are so constructed as to permit calibration at the 100 % point by swinging the receiver to a position directly on the axis of the light source (see Figure 4).
It may be desired in some cases (such as when measuring low-reflectivity surfaces) to use an intermediate calibration point (between 0 and 100 % on the scale) with this method. In these cases, a neutral density filter of known transmittance shall be inserted in the optical path, and the calibration control shall then be adjusted until the meter reads the percentage transmission of the neutral density filter. This filter shall be removed before reflectivity measurements are performed.
The indirect calibration method is applicable in the case of instruments with fixed source and receiver geometry. A properly calibrated and maintained reflectance standard is required. This reference standard should preferably be a flat mirror with a reflectance value as near as possible to that of the test samples.
The reflectance of flat mirror samples can be measured on instruments employing either the direct or the indirect calibration method. The reflectance value is read directly from the indicating meter.
Measurement of the reflectance of non-flat (convex) mirrors requires the use of instruments which incorporate an integrating sphere in the receiver unit (see Figure 5). If the instrument-indicating meter indicates ne divisions with a standard mirror of E % reflectance, then, with a mirror of unknown reflectance, nx divisions will correspond to a reflectance of X %, in accordance with the formula:
This table is taken from CIE publication 50 (45) (1970)
a Changed in 1966 (from 3 to 2) | |||
λnm | (λ) | (λ) | (λ) |
---|---|---|---|
380 | 0,0014 | 0,0 | 0,0065 |
390 | 0,0042 | 0,0001 | 0,0201 |
400 | 0,0143 | 0,0004 | 0,0679 |
410 | 0,0435 | 0,0012 | 0,2074 |
420 | 0,1344 | 0,004 | 0,6456 |
430 | 0,2839 | 0,0116 | 1,3856 |
440 | 0,3483 | 0,023 | 1,7471 |
450 | 0,3362 | 0,038 | 1,7721 |
460 | 0,2908 | 0,06 | 1,6692 |
470 | 0,1954 | 0,091 | 1,2876 |
480 | 0,0956 | 0,139 | 0,813 |
490 | 0,032 | 0,208 | 0,4652 |
500 | 0,0049 | 0,323 | 0,272 |
510 | 0,0093 | 0,503 | 0,1582 |
520 | 0,0633 | 0,71 | 0,0782 |
530 | 0,1655 | 0,862 | 0,0422 |
540 | 0,2904 | 0,954 | 0,0203 |
550 | 0,4334 | 0,995 | 0,0087 |
560 | 0,5945 | 0,995 | 0,0039 |
570 | 0,7621 | 0,952 | 0,0021 |
580 | 0,9163 | 0,87 | 0,0017 |
590 | 1,0263 | 0,757 | 0,0011 |
600 | 1,0622 | 0,631 | 0,0008 |
610 | 1,0026 | 0,503 | 0,0003 |
620 | 0,8544 | 0,381 | 0,0002 |
630 | 0,6424 | 0,265 | 0,0 |
640 | 0,4479 | 0,175 | 0,0 |
650 | 0,2835 | 0,107 | 0,0 |
660 | 0,1649 | 0,061 | 0,0 |
670 | 0,0874 | 0,032 | 0,0 |
680 | 0,0468 | 0,017 | 0,0 |
690 | 0,0227 | 0,0082 | 0,0 |
700 | 0,0114 | 0,0041 | 0,0 |
710 | 0,0058 | 0,0021 | 0,0 |
720 | 0,0029 | 0,001 | 0,0 |
730 | 0,0014 | 0,0005 | 0,0 |
740 | 0,0007 | 0,0002a | 0,0 |
750 | 0,0003 | 0,0001 | 0,0 |
760 | 0,0002 | 0,0001 | 0,0 |
770 | 0,0001 | 0,0 | 0,0 |
780 | 0,0 | 0,0 | 0,0 |
Vehicle category | Interior mirror | Exterior mirrors | ||||
---|---|---|---|---|---|---|
Interior mirrorClass I | Main mirror (large)Class II | Main mirror (small)Class III | Wide-angle mirrorClass IV | Close-proximity mirrorClass V | Front mirrorClass VI | |
M1 | Compulsory Unless a mirror would not provide rearward vision (as defined in item 5.1 Annex III) Optional If the mirror does not provide rearward vision | Optional | Compulsory One on the driver's side and one on the passenger's side. Class II mirrors may be fitted as an alternative. | Optional One on the driver's side and/or one on the passenger's side | Optional One on the driver's side and one on the passenger's side (both must be fitted at least 2 m above the ground) | Optional (must be fitted at least 2 m above the ground) |
M2 | Optional (no requirements for the field of view) | Compulsory One on the driver's side and one on the passenger's side | Not permitted | Optional One on the driver's side and/or one on the passenger's side | Optional One on the driver's side and one on the passenger's side (both must be fitted at least 2 m above the ground) | Optional (must be fitted at least 2 m above the ground) |
M3 | Optional (no requirements for the field of view) | Compulsory One on the driver's side and one on the passenger's side | Not permitted | Optional One on the driver's side and/or one on the passenger's side | Optional One on the driver's side and one on the passenger's side (both must be fitted at least 2 m above the ground) | Optional (must be fitted at least 2 m above the ground) |
N1 | Compulsory Unless a mirror would not provide rearward vision (as defined in item 5.1 Annex III) Optional If the mirror does not provide rearward vision | Optional | Compulsory One on the driver's side and one on the passenger's side. Class II mirrors may be fitted as an alternative. | Optional One on the driver's side and/or one on the passenger's side | Optional One on the driver's side and one on the passenger's side (both must be fitted at least 2 m above the ground) | Optional (must be fitted at least 2 m above the ground) |
N2 ≤ 7,5 t | Optional (no requirements for the field of view) | Compulsory One on the driver's side and one on the passenger's side | Not permitted | [F4Compulsory For both sides if a Class V mirror can be fitted Optional For both sides together if not] | [F4Compulsory, see Annex III items 3.7 and 5.5.5 One on the passenger’s side Optional One on the driver’s side (both must be fitted at least 2 m above the ground) A tolerance of + 10 cm may be applied] | Optional One front mirror (must be fitted at least 2 m above the ground) |
N2> 7,5 t | Optional (no requirements for the field of view) | Compulsory One on the driver's side and one on the passenger's side | Not permitted | Compulsory One on the driver's side and one on the passenger's side | Compulsory, see Annex III items 3.7 and 5.5.5 One on the passenger's side Optional One on the driver's side (both must be fitted at least 2 m above the ground) | Compulsory, see Annex III item 2.1.2 One front mirror (must be fitted at least 2 m above the ground) |
N3 | Optional (no requirements for the field of view) | Compulsory One on the driver's side and one on the passenger's side | Not permitted | Compulsory One on the driver's side and one on the passenger's side | Compulsory, see Annex III items 3.7 and 5.5.5 One on the passenger's side Optional One on the driver's side (both must be fitted at least 2 m above the ground) | Compulsory, see Annex III item 2.1.2. One front mirror (must be fitted at least 2 m above the ground) |
In case a camera/monitor device is used the monitor must exclusively show the field of vision prescribed in point 5.6 while the vehicle is moving forward with a speed up to 30 km/h. In case the vehicle is moving with higher speed or moving backwards the monitor can be used to display the field of vision of other cameras mounted to the vehicle.
exterior mirrors on the passenger side of vehicles of categories M2 and M3;
Class VI mirrors.
These mirrors shall not, however, be mounted on vehicles the cab height of which is such as to prevent compliance with this requirement. In this case an other device for indirect vision is not required.
The field of vision must be such that the driver can see at least a 20 m wide, flat, horizontal portion of the road centred on the vertical longitudinal median plane of the vehicle and extending from 60 m behind the driver's ocular points (Figure 6) to the horizon.
The field of vision must be such that the driver can see at least a 5 m wide, flat, horizontal portion of the road, which is bounded by a plane which is parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle on the driver's side of the vehicle and extends from 30 m behind the driver's ocular points to the horizon.
In addition, the road must be visible to the driver over a width of 1 m, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 4 m behind the vertical plane passing through the driver's ocular points (see Figure 7).
The field of vision must be such that the driver can see at least a 5 m wide, flat, horizontal portion of the road, which is bounded on the passenger's side by a plane parallel to the median longitudinal vertical plane of the vehicle and passing through the outermost point of the vehicle on the passenger's side and which extends from 30 m behind the driver's ocular points to the horizon.
In addition, the road must be visible to the driver over a width of 1 m, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 4 m behind the vertical plane passing through the driver's ocular points (see Figure 7).
The field of vision must be such that the driver can see at least a 4 m wide, flat, horizontal portion of the road, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle on the driver's side of the vehicle and extends from 20 m behind the driver's ocular points to the horizon (see Figure 8).
In addition, the road must be visible to the driver over a width of 1 m, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 4 m behind the vertical plane passing through the driver's ocular points.
The field of vision must be such that the driver can see at least a 4 m wide flat, horizontal portion of the road which is bounded by a plane parallel to the median longitudinal vertical plane passing through the outermost point of the vehicle on the passenger's side and which extends from 20 m behind the driver's ocular points to the horizon (see Figure 8).
In addition, the road must be visible to the driver over a width of 1 m which is bounded by a plane which is parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 4 m behind the vertical plane passing through the driver's ocular points.
The field of vision must be such that the driver can see at least a 15 m-wide, flat, horizontal portion of the road, which is bounded by a plane parallel to the median longitudinal vertical plane of the vehicle and passing through the outermost point of the vehicle on the driver's side and which extends from at least 10 to 25 m behind the driver's ocular points.
In addition, the road must be visible to the driver over a width of 4,5 m, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 1,5 m behind the vertical plane passing through the driver's ocular points (see Figure 9).
The field of vision must be such that the driver can see at least a 15 m-wide, flat, horizontal portion of the road, which is bounded by a plane parallel to the median longitudinal vertical plane of the vehicle and passing through the outermost point of the vehicle on the passenger's side and which extends from at least 10 to 25 m behind the driver's ocular points.
In addition, the road must be visible to the driver over a width of 4,5 m, which is bounded by a plane parallel to the median longitudinal vertical plane and passing through the outermost point of the vehicle starting from a point 1,5 m behind the vertical plane passing through the driver's ocular points (see Figure 9).
The field of vision must be such that the driver can see a flat horizontal portion of the road along the side of the vehicle, bounded by the following vertical planes (see Figures 10a and 10b):
one traverse vertical plane through the outermost point of the front of the vehicle-cab
one traverse vertical plane 2 000 mm in front of the vehicle
one longitudinal vertical plane parallel to the longitudinal vertical median plane going though the outermost side of the vehicle at the driver's side and
one longitudinal vertical plane parallel to the longitudinal vertical median plane 2 000 mm outside the outermost side of the vehicle opposite to the driver's side.
The front of this field of vision opposite to the driver's side may be rounded off with a radius of 2 000 mm (see Figure 11).
The provisions for front mirrors are compulsory for forward-controlled (as defined in Directive 70/156/EEC, Annex I(a), footnote (Z)) vehicles of categories N2> 7,5 t and N3.
If vehicles of these categories with other construction characteristics regarding the bodywork cannot fulfil the requirements by using a front mirror, a camera/monitor device shall be used. If either of these options do not provide the adequate field of vision then any other device for indirect vision shall be used. This device must be able to detect an object of 50 cm height and with a diameter of 30 cm within the field defined in Figure 11.
The field of vision may be reduced by the presence of headrest and devices such as, in particular, sun visors, rear windscreen wipers, heating elements and stop lamp of category S3 or by components of bodywork such as window columns of rear split doors, provided that all these devices together do not obscure more than 15 per cent of the prescribed field of vision when projected onto a vertical plane perpendicular to the longitudinal median plane of the vehicle. The degree of obstruction shall be measured with the headrests adjusted to their lowest possible position and with the sun visors folded back.
In the fields of vision specified above, obstruction due to the bodywork and some of its components, such as other mirrors, door handles, outline marker lights, direction indicators and rear bumpers, as well as reflective-surface cleaning components, shall not be taken into account if they are responsible for a total obstruction of less than 10 % of the specified field of vision.
The field of vision shall be determined by placing powerful light sources at the ocular points and examining the light reflected on the vertical monitoring screen. Other equivalent methods may be used.
The viewing direction of the monitor shall roughly be the same direction as the one for the main mirror.
a vertical plane aligned on the furthest rear point of the complete vehicle and perpendicular to the longitudinal vertical median plane of the vehicle;
a vertical plane which is parallel to and positioned 2 000 mm to the rear of the previous plane (with respect to the rear of the vehicle);
two longitudinal vertical planes defined at the outermost sides of the vehicle and which are parallel to the longitudinal vertical median plane of the vehicle.
Textual Amendments
F4 Substituted by Commission Directive 2005/27/EC of 29 March 2005 amending, for the purposes of its adaptation to technical progress, Directive 2003/97/EC of the European Parliament and of the Council, concerning the approximation of the laws of the Member States relating to the type-approval of devices for indirect vision and of vehicles equipped with these devices (Text with EEA relevance).
The resolution threshold of a camera is defined by the formula:
where:
:
resolution threshold of the camera (arc-min)
:
angle of vision of the camera (°)
:
number of video lines of the camera
The manufacturer shall supply the values for βc and Nc.
For a monitor having certain dimensions and properties, a distance to the monitor can be calculated within which the detection distance is dependent only on the performances of the camera. This critical viewing distance rm,c is defined by:
where:
:
critical viewing distance (m)
:
height of the monitor image (m)
:
number of video lines of the monitor (-)
:
resolution threshold of the observer (minutes of arch)
The number 60 is for conversion from minutes of arches to degrees.
The manufacturer shall supply the values for Hm and Nm.
ωeye = 1
where:
:
detection distance [m]
:
diameter of the object [m]
:
threshold increasing factor
ωc, βc and Nc according to item 1.1
D0= 0,8 m
f = 8
where:
:
viewing distance to the monitor (m)
:
diagonal of the monitor screen (inch)
:
number of video lines of the monitor (-)
βc and Nc according to point 1.1
Nm and ωeye according to point 1.2
Based on the installation conditions, a determination shall be made to discover whether the entire device can still satisfy the functional requirements listed in Annex II, especially the glare correction, the maximum and the minimum luminance of the monitor. It shall also be determined the degree to which the glare correction will be addressed and the angle at which sunlight can strike a monitor and these shall be compared to the corresponding measuring results from the system measurements.
This can be based on either a CAD-generated model, a determination of the angles of light for the device when mounted on the relevant vehicle, or by carrying out relevant measurements on the relevant vehicle as described in Annex II, part B, point 3.2.
Directive 71/127/EEC as amended | This Directive |
---|---|
— | Article 1 |
— | Article 2 |
Article 1 | — |
Article 2 | — |
Article 3 | — |
Article 4 | — |
Article 5 | — |
Article 6 | — |
Article 7 | Article 3 |
Article 8 | — |
— | Article 4 |
Article 9 | — |
Article 10 | Article 5 |
— | Article 6 |
— | Article 7 |
Article 11 | Article 8 |
Annex I | Annex I |
Appendix 1 to Annex I | Appendix 1 to Annex II |
— | Appendix 1 to Annex I |
— | Appendix 2 to Annex I |
— | Appendix 3 to Annex I |
— | Appendix 4 to Annex I |
— | Appendix 5 to Annex I |
Appendix 2 to Annex I | Appendix 6 to Annex I |
Annex II | Annex II, A |
— | Annex II, B |
Appendix 1 to Annex II | Appendix 1 to Annex II |
— | Appendix 2 to Annex II |
Appendix 2 to Annex II | — |
Appendix 3 to Annex II | Annex I and Appendix 5 to Annex I |
Annex III | Appendix 2 to Annex I |
— | Annex III |
Appendix to Annex III | Appendix to Annex III |
— | Appendix 4 to Annex I |
— | Annex IV |
Delete where inapplicable.
Within the meaning of Annex IIA to Directive 70/156/EEC.
Delete where inapplicable.
Where appropriate, state whether the extension of the initial EC type-approval is the first, second, etc.
Delete where inapplicable.
Definitions taken from CIE publication 50 (45), International Electronical Vocabulary, Group 45: Lighting.
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