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BS 5400-2:2006

$191.13

Steel, concrete and composite bridges – Specification for loads

Published By Publication Date Number of Pages
BSI 2006 98
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PDF Pages PDF Title
1 BRITISH STANDARD
2 Committees responsible for this British Standard
3 Contents
9 1 Scope
1.1 General
1.2 Documents comprising this British Standard
1.3 Loads and factors specified in this Part of BS 5400
1.4 Wind and temperature
2 Normative references
3 Principles, definitions and symbols
Principles
Terms and definitions
loads
dead load
superimposed dead load
10 live loads
adverse and relieving areas and effects
total effects
dispersal
distribution
highway carriageway and lanes
11 Highway carriageway and traffic lanes
12 Highway carriageway and traffic lanes
Bridge components
13 Symbols
15 4 Loads – General
4.1 Loads and factors specified
4.2 Loads to be considered
4.3 Classification of loads
16 Loads to be taken in each combination with appropriate æfL
17 Loads to be taken in each combination with appropriate æfL
18 4.4 Combination of loads
4.5 Application of loads
19 4.6 Overturning
4.7 Foundation pressures, sliding on foundations, loads on piles, etc.
5 Loads applicable to all bridges
5.1 Dead load
20 5.2 Superimposed dead load
21 5.3 Wind loads
22 Basic wind speed Vb in m/s (copyright BRE)
23 Values of direction factor Sd
25 Definition of significant topography
26 Values of terrain and bridge factor Sb½, hourly speed factor S
Values of terrain and bridge factor S
27 Gust speed reduction factor Tg for bridges in towns
Hourly mean reduction factor Tc for bridges in towns
31 Typical superstructures to which Figure 5 applies; those that require wind tunnel tests and depth d to be used for deriving A1 and CD
32 Typical superstructures to which Figure 5 applies; those that require wind tunnel tests and depth d to be used for deriving A1 and CD
33 Drag coefficient CD for superstructures with solid elevation
34 Drag coefficient CD for a single truss
Shielding factor ½
35 Drag coefficient CD for parapets and safety fences
36 Drag coefficient CD for piers
38 Lift coefficient CL
39 5.4 Temperature
40 Isotherm of minimum shade air temperature (in °C)
41 Isotherms of maximum shade air temperature (in °C)
43 Minimum effective bridge temperature
44 Maximum effective bridge temperature
Adjustment to effective bridge temperature for deck surfacing
45 Temperature difference for different types of construction
46 Temperature difference for different types of construction (continued)
48 5.5 Effects of shrinkage and creep, residual stresses, etc.
5.6 Differential settlement
5.7 Exceptional loads
49 5.8 Earth pressure on retaining structures
5.9 Erection loads
50 6 Highway bridge live loads
6.1 General
51 6.2 Type HA loading
Loading curve HA UDL (not to scale)
52 Type HA uniformly distributed load
53 Base lengths for highly cusped influence lines
54 6.3 Type HB loading
Dimensions of HB vehicle
55 6.4 Application of types HA and HB loading
56 HA lane factors
57 6.5 Standard footway and cycle track loading
58 Type HA and HB highway loading in combination
60 6.6 Accidental loading
Accidental wheel loading
61 6.7 Loads due to vehicle collision with parapets
62 6.8 Vehicle collision loads on bridge supports and superstructures over highways
63 Collision loads on supports of bridges over highways
6.9 Centrifugal loads
64 6.10 Longitudinal load
6.11 Accidental load due to skidding
65 6.12 Loading for fatigue investigations
6.13 Dynamic loading on highway bridges
7 Foot/cycle track bridge live loads
7.1 Standard foot/cycle track bridge loading
66 7.2 Vehicle collision loads on foot/cycle track bridge supports and superstructures over highways
7.3 Vibration serviceability
8 Railway bridge live loads
8.1 General
8.2 Nominal loads
67 Type RU loading and Type SW/0 loading
Type RL loading
Dynamic factors for type RU loading
68 Dimension L used in calculating the dynamic factor for RU loading
70 8.3 Load combinations
71 Nominal longitudinal loads
8.4 Design loads
8.5 Derailment loads
72 8.6 Collision load on supports and superstructures of bridges over railways
8.7 Loading for fatigue investigations
8.8 Deformation requirements
8.9 Footway and cycle track loading on railway bridges
73 (normative) Basis of HA and HB highway loading
(normative) Basis of HA and HB highway loading
Historical background to highway loading
Design of highway structures subject to abnormal indivisible loads (AIL)
74 (normative) Vibration serviceability requirements for foot and cycle track bridges
(normative) Vibration serviceability requirements for foot and cycle track bridges
General
Simplified method for deriving maximum vertical acceleration
Modulus of elasticity
Second moment of area
Fundamental natural frequency f
75 Configuration factor C
Static deflection y
Configuration factor K
Configuration factor K
76 Dynamic response factor ”
Logarithmic decrement of decay of vibration ¸
General method for deriving maximum vertical acceleration
Damage from forced vibration
77 Dynamic response factor ”
78 (normative) Temperature differences T for various surfacing depths
(normative) Temperature differences T for various surfacing depths
Values of T for group 1
Values of T for group 2
Values of T for group 3
79 Values of
80 (normative) Derivation of RU and RL railway loadings
(normative) Derivation of RU and RL railway loadings
RU loading
81 Wagons and locomotives covered by RU loading
82 Works trains vehicles covered by RL loading
83 Passenger vehicles covered by RL loading
84 Passenger vehicles covered by RL loading
85 RL Loading
86 Use of Table D.1, Table D.2, Table D.3 and Table D.4 when designing for RU loads
Simply supported main girders and rail bearers
Shear force determination
Cross girders loaded through simply supported rail bearers
87 Equivalent uniformly distributed loads for bending moments for simply supported beams (static loading) under RU loading
88 End shear forces for simply supported beams (static loading) under RU loading
89 Equivalent uniformly distributed loads for bending moments for simply supported beams, including dynamic effects under RU loading
90 End shear forces for simply supported beams, including dynamic effects, under RU loading
91 (normative) Probability factor Sp and seasonal factor
(normative) Probability factor Sp and seasonal factor
Probability factor Sp
Seasonal factor S
Values of seasonal factor Ss
92 (normative) Topographical factor Sh½
(normative) Topographical factor Sh½
General
Topgraphy significance
Altitude
Gust speeds
Hourly mean speeds
Topography features
General
93 Derivation
Undulating terrain
Value of factor S
Values of Le and Sh
94 Definition of topographic dimensions
Topographic location factors for hills and ridges
95 Topographic location factors for hills and ridges
Topographic location factors for cliffs and escarpments
Topographic location factors
BS 5400-2:2006
$191.13