BSI 23/30430180 DC:2023 Edition
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BS EN 15273-2. Railway applications. Gauges – Part 2. Rolling stock
Published By | Publication Date | Number of Pages |
BSI | 2023 | 211 |
PDF Catalog
PDF Pages | PDF Title |
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1 | 30430180-NC.pdf |
3 | 41_e_stf (3).pdf |
15 | 1 Scope 2 Normative references |
16 | 3 Terms and definitions 4 Symbols and abbreviations 5 Gauges and gauging processes |
18 | Annex A (normative)Defined kinematic gauges — common rules A.1 General rules A.1.1 Requirements for use of defined kinematic gauges |
19 | A.1.2 Dimensional tolerances on vehicles A.1.2.1 General principles |
20 | A.1.2.2 Dimensional checking on a finished vehicle A.1.3 Applicability of this annex |
21 | A.1.4 Vehicles with non-coincident bogie centre and rotation point A.1.5 Bogie classes |
22 | A.1.6 Designation of running gear |
23 | A.2 Determination of the vehicle heights A.2.1 General A.2.2 Determination of the minimum heights above running plane A.2.2.1 General A.2.2.2 Overall reductions to be taken into account to determine the minimum heights above running plane |
33 | A.2.3 Determination of maximum heights above running plane A.2.3.1 General |
34 | A.2.3.2 Bending effect of structures A.2.3.3 Suspension extension |
35 | A.2.3.4 Vertical curves |
36 | A.3 Determination of the vehicle semi-widths A.3.1 General |
37 | A.3.2 Quasi-static displacements A.3.2.1 General A.3.2.2 General cases A.3.2.3 Effect of side bearer clearances |
38 | A.3.2.4 Particular case for the lower parts A.3.3 Lateral reductions – general formulae A.3.3.1 General |
39 | A.3.3.2 Sections located between the end wheelsets or between the bogie pivots |
40 | A.3.3.3 Sections located beyond the end wheelsets or beyond the bogie pivots |
42 | A.3.4 Rules for bottom lines of gauge – shunting devices and contact ramps A.3.4.1 Use of shunting devices on curved tracks |
44 | A.3.4.2 Contact ramps |
46 | A.4 Pantograph gauge verification and non-insulated devices on the vehicle’s roof A.4.1 Pantograph gauge verification A.4.1.1 General principles A.4.1.2 Formulae for a pantograph located between the end wheelsets or the bogie pivots (verification with the vehicle at a standstill on canted track) |
47 | A.4.1.3 Formulae for a pantograph located beyond the end wheelsets or bogie pivots (verification of vehicle in running conditions on track with cant deficiency) |
48 | A.4.2 Pantographs in lowered position and non-insulated live parts on vehicle’s roof A.4.2.1 Pantographs in lowered position and non-insulated live parts on vehicle’s roof reference profile |
49 | A.4.2.2 Rules for non-insulated devices on the vehicle roof outside the pantograph reference profile A.4.2.3 Rules for devices on the vehicle roof and pantograph in lowered position inside pantograph reference profile |
50 | A.5 Wheel zone |
53 | A.6 Specific rules for doors and steps in the open position A.6.1 General A.6.2 Access doors |
54 | A.6.3 Movable steps |
55 | Annex B (normative)Defined kinematic gauges for vehicles with passive tilting systems and vehicles without tilting system intended for operation at higher lateral accelerations B.1 Introduction B.2 Common rules with Annex A |
56 | B.3 Quasi-static displacements for passive tilting vehicles |
58 | B.4 Quasi-static displacements for non-tilting vehicle operating with B.5 Pantographs independent of the tilting body system or mounted on a non-tilting vehicle operating with B.5.1 General |
59 | B.5.2 Pantograph located between the end wheelsets or the bogie pivots B.5.2.1 Verification with vehicle in stationary condition on canted track B.5.2.2 Verification with vehicle operating with cant deficiency: |
60 | B.5.3 Pantograph located beyond the end wheelsets or the bogie pivots B.6 Rules about devices on the vehicle’s roof and pantographs in lowered position inside the pantograph’s reference profile |
61 | Annex C (informative)Defined kinematic gauges – Active tilting vehicles and pantograph associated with a re-centering system C.1 Introduction C.2 Risk analysis |
62 | C.3 Active body tilting method C.4 Lateral reductions C.4.1 Basic formulae C.4.2 Modifications to be made to the formulae for calculating active tilting vehicles |
63 | C.4.3 Expression for the values of the lateral clearance when the body is tilted |
64 | C.4.4 Quasi-static displacements C.4.4.1 General C.4.4.2 Expression of for the reductions on the inside of the curve |
65 | C.4.4.3 Expression of for the reductions on the outside of the curve C.4.5 Other associated rules |
66 | C.5 Pantographs coupled to the tilting body and/or a pantograph re-centering system C.5.1 General C.5.2 Pantographs with counter-tilting system fixed to the tilting body C.5.2.1 General |
67 | C.5.2.2 Pantographs located between the end wheelsets or the bogie pivots |
68 | C.5.2.3 Pantographs located beyond the end wheelsets or the bogie pivots |
69 | C.5.3 Pantographs having a re-centering system C.5.3.1 General |
70 | C.5.3.2 Pantographs located between the end wheelsets or the bogie pivots |
71 | C.5.3.3 Pantographs located beyond the end wheelsets or the bogie pivots |
73 | Annex D (normative)Defined kinematic gauge – Graphical method D.1 General D.2 Lateral reductions D.2.1 General |
74 | D.2.2 Determination of lateral displacement D.2.2.1 General D.2.2.2 Description of the coach |
76 | D.2.2.3 Vehicle on curve |
77 | D.2.2.4 Clearance between wheelsets and track |
78 | D.2.2.5 Lateral clearance between wheelset and bogie frame |
79 | D.2.2.6 Lateral clearance between bogie and body – lateral displacement |
81 | D.2.2.7 Option – lateral displacement obtained with anamorphosis plotting |
82 | D.2.3 Determination of lateral displacement |
84 | D.2.4 Quasi-static displacement D.2.5 Determination of lateral reductions |
86 | Annex E (normative)Defined kinematic gaugesG1, GI1, GI2, G2, GA, GB, GC, GB1, GB2, GI3, FR 3.3, BE1, BE2, BE3, BE4, PTb, PTb+, PTc, DE1, DE2, DE3, NL1, NL2, GHE16, GEA16, GEB16, GEC16, GEC14, GEE10, GED10, EBVO1, EBVO2, EBVO3, DK1, GCZ3 E.1 Defined kinematic gauges using the same common rules |
87 | E.2 Gauges for lower parts E.2.1 Common parts |
88 | E.2.2 Special rules for bottom lines of lower parts |
89 | E.3 Gauges for upper part |
90 | E.4 Particular rules E.4.1 Upper parts for gauges DE1 and DE2 |
91 | E.4.2 Gauges BE1, BE2, BE3 and BE4 E.4.2.1 Lower parts E.4.2.2 Pantograph gauge |
92 | Annex F (normative)Defined static gauges – common rules F.1 General rules F.1.1 General F.1.2 Limitations for the use of defined static gauges F.1.3 Limit for applicability of this Annex depending on the running gear of the vehicle |
93 | F.2 Determination of the vehicle heights F.2.1 Determination of the minimum heights above running plane F.2.1.1 Minimum heights above the running plane F.2.1.2 Vertical reduction formulae for vertical curves F.2.1.3 Rules for bottom lines of gauge – marshalling humps and embarkation onto ferries F.2.2 Determination of the maximum heights above running plane F.3 Determination of the vehicle semi-widths F.3.1 General |
94 | F.3.2 Sections located between the end wheelsets or between the bogie pivots F.3.3 Sections located beyond the end wheelsets or beyond the bogie pivots F.3.4 Rules for bottom lines of gauge – use of shunting devices on curved tracks |
95 | Annex G (normative)Defined static gaugesG1, GI1, GI2, G2, GA, GB, GC, GB1, GB2, GHE16, GEA16, GEB16, GEC16, GEE10, GED 10 G.1 Defined static gauges using the same common rules G.2 Gauges for lower parts G.2.1 Common parts G.2.2 Special rules for bottom lines of lower parts |
96 | G.3 Gauges for upper parts |
97 | Annex H (normative)Defined static gauges using other rules – UK, FIN1 H.1 Defined static gauges using other rules H.2 Defined static gauge UK H.3 Defined static gauge FIN1 H.3.1 General H.3.2 Associated rules H.3.2.1 Vertical position of the vehicle H.3.2.2 Lower parts of the rolling stock |
98 | H.3.2.3 Rolling stock parts close to the wheel flanges H.3.2.4 Rolling stock width H.3.2.5 Movable steps and access doors opening outwards for coaches and multiple units H.3.2.6 Pantographs and non-insulated roof-mounted parts H.3.2.7 Other rules |
99 | H.3.3 Reduction formulae H.3.3.1 General rules H.3.3.2 Reduction formulae |
100 | H.3.4 Increase in the minimum height of the lower part of the rolling stock able to pass over marshalling humps and track brakes H.3.5 Increase in the minimum height of the lower part of the rolling stock not-permitted to pass over marshalling humps and track brakes |
101 | H.3.6 Passage over transitions and humps H.3.6.1 Position of track brakes and other shunting devices H.3.6.2 Running over marshalling hump passing track H.3.7 Gauge of the vehicle lower step H.3.7.1 General |
102 | H.3.7.2 Requirements for the distance between the step and the platform in the transverse plane H.3.7.3 Gauge check H.3.8 Gauge of outwards opening doors and of fold-down steps for coaches and multiple units H.3.8.1 General |
103 | H.3.8.2 Requirements for the distance between the door and the fixed equipment in the transverse plane H.3.8.3 Gauge check |
104 | H.3.9 Pantographs and non-insulated parts |
105 | Annex I (informative)Defined kinematic gauges and defined static gauges using common rules – Common process I.1 Establishing the formulae to define a maximum construction gauge I.2 Process for defined kinematic gauge using common rules I.2.1 Useful elements I.2.1.1 General I.2.1.2 Reference profile G1 I.2.1.3 Basic data I.2.1.4 Projections I.2.2 Determination of maximum construction gauge heights I.2.2.1 Determination of the minimum heights above running plane of maximum construction gauge |
106 | I.2.2.2 Determination of the maximum heights above running plane of maximum construction gauge I.2.3 Determination of maximum construction gauge semi-widths I.2.3.1 Determination of quasi-static displacements for each height I.2.3.2 Determination of lateral reductions |
108 | I.2.4 Maximum construction gauge |
109 | I.3 Process for defined static gauge using common rules I.3.1 Useful elements I.3.1.1 General |
110 | I.3.1.2 Reference profile G1 I.3.1.3 Basic data I.3.1.4 Projections I.3.2 Determination of maximum construction gauge heights I.3.2.1 Determination of the minimum heights above running plane of maximum construction gauge I.3.2.2 Determination of the maximum heights above running plane of maximum construction gauge |
111 | I.3.3 Determination of maximum construction gauge semi-widths – Determination of lateral reductions I.3.4 Maximum construction gauge |
113 | Annex J (normative)Dynamic gauging using computer simulation tools J.1 Background J.2 Principles J.2.1 General |
114 | J.2.2 Responsibilities |
115 | J.2.3 Computer simulation J.2.4 Geometric overthrow J.3 Vehicle simulation model |
116 | J.4 Model validation J.4.1 General J.4.2 General notes on validation tests |
118 | J.4.3 Distribution of static wheel forces |
119 | J.4.4 Assessment of displacement characteristics (sway test) J.4.4.1 Method J.4.4.2 Four-part averages |
121 | J.4.4.3 Average deviations |
122 | J.4.4.4 Validation limits J.4.5 Dynamic performance assessment J.4.5.1 Method J.4.5.2 Dynamic ride test J.4.5.3 Evaluation of the dynamic ride test |
123 | J.4.5.4 Simulation J.4.5.5 Comparison J.5 Track data |
124 | J.6 Dynamic simulation J.7 Results processing J.8 Create swept envelope |
125 | Annex K (normative)Defined dynamic gauges – Common rules K.1 General K.1.1 Requirements for use of defined dynamic gauges K.1.2 Dimensional tolerances on vehicles K.1.3 Limit for applicability depending on vehicle configurations |
126 | K.1.4 Classification of running gear K.1.5 Designation of running gear K.2 Movement calculation by formulae K.2.1 General |
127 | K.2.2 Calculation of roll movements K.2.2.1 General K.2.2.2 Factors to be taken into account K.2.2.3 Straight track K.2.2.4 Towards the inside of the curve |
128 | K.2.2.5 Towards the outside of the curve K.2.2.6 Calculation of roll movements for vehicles with passive carbody tilt K.2.3 Calculation of downward movements K.2.3.1 General K.2.3.2 Factors to be taken into account |
132 | K.2.3.3 Wear displacements K.2.3.4 Structure deformation displacements K.2.3.5 Suspension displacements |
133 | K.2.3.6 Geometric overthrow when passing over vertical curves K.2.3.7 Geometric overthrow when passing over activated track brakes K.2.3.8 Geometric overthrow when passing over marshalling humps |
134 | K.2.3.9 Geometric overthrow when passing over ferry ramps K.2.4 Calculation of upward movements K.2.4.1 General K.2.4.2 Factors to be taken into account K.2.4.3 Concave vertical curves |
135 | K.2.4.4 Convex vertical curves K.2.5 Calculation of lateral movements K.2.5.1 General K.2.5.2 Factors to be taken into account |
136 | K.2.5.3 Sections located between end wheelsets or bogie pivots |
137 | K.2.5.4 Sections located beyond end wheelsets or bogie pivots |
138 | K.2.6 Calculation of pantograph movements |
139 | K.2.7 Wheel zone K.2.8 Specific rules for doors and steps in the open position K.2.9 Swept envelopes K.3 Movement calculation by simulation K.3.1 General |
140 | K.3.2 Factors to be taken into account K.3.2.1 Vehicle model |
141 | K.3.2.2 Parameters to be modelled and simulated K.3.2.3 Load cases |
142 | K.3.2.4 Run cases K.3.2.5 Track irregularities K.3.3 Simulated movements at the datum point |
143 | K.3.4 Calculated movements at cross sections K.3.5 Statistical processing K.3.6 Influence of parameters not included in the model K.3.6.1 General |
144 | K.3.6.2 Calculation of downward movements K.3.6.3 Calculation of upward movements |
145 | K.3.6.4 Calculation of lateral movements K.3.6.5 Calculation of pantograph movements K.3.6.6 Marshalling humps K.3.6.7 Track brakes |
146 | K.3.6.8 Ferry ramps K.3.7 Wheel zone K.3.8 Specific rules for doors and steps in the open position K.3.9 Vehicle swept envelopes K.4 Comparison with allowed space |
147 | K.5 Input data catalogue (informative) K.5.1 General K.5.2 Vehicle data |
148 | K.5.3 Track and operational data |
149 | K.5.4 Environmental data |
150 | Annex L (normative)Defined dynamic gauges SEa, SEc, NO1, NO2 L.1 Defined dynamic gauges – common rules L.2 Gauges L.3 Special rules for bottom lines |
154 | Annex M (normative)Application of dynamic gauging by simulation and calculation of swept envelopes for use in Absolute and Comparative Gauging M.1 Principles M.2 Provision of data for assessment of compatibility M.3 Creating a simulation model M.3.1 Describing vehicle size and shape M.3.1.1 General |
156 | M.3.1.2 Vehicle construction tolerances M.3.1.3 Vehicle overall tolerance |
157 | M.3.1.4 Vehicle measurement tolerances M.3.1.5 Vertical displacements and tolerances M.3.1.6 Taking into accountCamber or sag |
158 | M.3.2 Constructing the simulation model M.3.2.1 General M.3.2.2 Vehicle conditions M.3.2.3 Masses M.3.2.4 Suspension modelling M.3.2.5 Stiffness |
159 | M.3.2.6 Dampers M.3.2.7 Air springs |
160 | M.3.2.8 Anti-roll devices M.3.2.9 Friction M.3.2.10 Active devices M.3.2.11 Inter-vehicle connections M.3.2.12 Suspension component tolerances M.3.2.13 Suspension maintenance allowances |
161 | M.3.2.14 Suspension failure modes M.4 Model validation M.5 Selection of track data M.5.1 General M.5.2 Track roughness M.5.3 Track irregularities |
162 | M.5.4 Track quality M.5.5 Track length M.5.6 Initial run-in length M.5.7 Initial input M.6 Simulation methodology M.6.1 General |
163 | M.6.2 Cant, speed and curve radius: general cases M.6.3 Cant, speed and curve radius: particular cases M.6.4 Application of cant and curve radius M.6.5 Side wind loads |
164 | M.6.6 Datum positions M.6.6.1 Leading and trailing ends M.6.6.2 Centreline |
165 | M.7 Results processing |
166 | M.8 Curving analysis of lateral wheelset movements |
167 | M.9 Calculating swept envelopes M.9.1 General |
168 | M.9.2 Input data M.9.2.1 Supplied infrastructure data M.9.2.2 Rolling stock profile information M.9.2.3 Rolling stock suspension and wheelset parameters |
169 | M.9.3 Calculation of movements due to suspension flexibility M.9.3.1 Calculation of appropriate cant excess and deficiency |
170 | M.9.3.2 Calculating maximum suspension displacement using two datum points |
171 | M.9.3.3 Calculating maximum suspension displacement using three datum points |
174 | M.9.4 Calculating lateral wheelset movements M.9.4.1 Maximum lateral wheelset movements |
175 | M.9.4.2 Calculating specific lateral wheelset movements |
176 | M.9.5 Lateral swept envelope calculation summary M.9.6 Vertical swept envelope calculation summary M.9.6.1 Upwards swept envelope calculation summary M.9.6.2 Downwards swept envelope calculation summary |
177 | M.9.7 Building the swept envelope |
178 | M.10 Data format for rolling stock models used for absolute gauging — RIS-2773-RST M.10.1 General |
179 | M.10.2 General – Presentation of rolling stock specific information |
180 | M.10.3 Cross sections – Presentation of rolling stock profile data |
181 | M.10.4 Presentation of geometric throw Information |
183 | M.10.5 Dynamic conditions – presentation of dynamic simulation results |
185 | M.10.6 Presentation of lateral wheelset movements M.10.7 Rolling stock maintenance and construction tolerances |
186 | M.11 Defining profiles for candidate vehicles using absolute and comparative gauging swept envelopes (informative) M.11.1 Available methods |
187 | M.11.2 Required candidate vehicle data M.11.3 Defining profiles for candidate vehicles using comparative methodology M.11.3.1 Background M.11.3.2 Selecting comparator vehicles |
188 | M.11.3.3 Required vehicle data M.11.3.4 Required infrastructure data M.11.3.5 Comparator vehicle information M.11.3.6 Methodology |
190 | M.11.4 Defining profiles for candidate vehicles using route template methodology M.11.4.1 Background |
191 | M.11.4.2 Required vehicle data |
192 | M.11.4.3 Required infrastructure data M.11.4.4 Methodology |
194 | M.11.5 Defining profiles for candidate vehicles using base vehicle profile methodology M.11.5.1 Background |
195 | M.11.5.2 Required vehicle data |
196 | M.11.5.3 Required infrastructure data M.11.5.4 Methodology |
197 | M.12 Equipment that requires contact or close proximity to infrastructure |
198 | M.13 Absolute gauging methodology for pantographs M.13.1 Background M.13.2 Pantograph gauges M.13.3 Comparison of benchmark pantograph sway values |
199 | M.13.4 Calculation of pantograph swept envelopes M.13.4.1 General |
200 | M.13.4.2 Calculation of overhead contact line height M.13.4.3 Calculation of pantograph sway M.13.4.4 Calculation of pantograph encroachment |
202 | M.13.4.5 Constructing the pantograph swept envelope M.13.4.6 Comparative and absolute gauging of pantographs |
204 | Annex N (normative)List of documents for rolling stock gauge assessmentApplicable for defined kinematic, static and dynamic gauges N.1 New vehicle |
205 | N.2 Existing vehicle |
206 | Annex O (informative)A–deviations |
208 | Annex ZA (informative)Relationship between this European Standard and the Essential Requirements of EU Directive (EU) 2016/797 aimed to be covered |