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BS 5400-5:2005

$176.74

Steel, concrete and composite bridges – Code of practice for design of composite bridges

Published By Publication Date Number of Pages
BSI 2005 56
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BS 5400-5 is part of a large series of standards concerning the design and construction of bridges. This part makes recommendations for design of bridges that use a composite construction (e.g. employing concrete slabs acting compositely with structural steelwork), and it covers the use of both materials. It is aimed principally at professional engineers involved in the design of bridges, particularly those working in the context of highway and railway engineering. This standard, which is a revision of the 1979 edition, draws heavily on other parts of the same series, particularly Parts 3, 5 and 10.

PDF Catalog

PDF Pages PDF Title
1 BRITISH STANDARD
2 Committees responsible for this British Standard
3 Contents
7 1 Scope
2 Normative references
3 Definitions
cased composite beam
uncased composite beam
8 composite box beam
composite column
composite plate
concrete slab
composite slab
participating permanent formwork
non-participating permanent formwork
filler beam construction
interaction
complete interaction
partial interaction
shear connector
connector modulus
9 3.14 Symbols
12 4 General design principles
4.1 Design philosophy
4.2 Material properties
13 4.3 Limit state requirements
5 Design and detailing of the superstructure for the serviceability limit state
5.1 Analysis of structure
14 5.2 Analysis of sections
16 5.3 Longitudinal shear
18 Nominal static strengths of shear connectors for different concrete strengths
19 Shear connectors
20 Shear connectors (concluded)
21 Dimensions of specimens for test on shear connectors
22 Dimensions of haunches
23 5.4 Temperature effects and shrinkage modified by creep
25 Shrinkage strains and creep reduction factors
5.5 Deflections
Range of concretes for which Table 2 can be used
26 6 Design and detailing of superstructure for the ultimate limit state
6.1 Analysis of structure
6.2 Analysis of sections
27 6.3 Longitudinal shear
29 Shear planes and transverse reinforcement
31 7 Composite box girders
7.1 General
7.2 Effective span
32 7.3 Effective breadth
7.4 Distribution of bending moments and vertical shear forces
7.5 Longitudinal shear
33 7.6 Torsion
Coefficient K
7.7 Composite plate
34 8 Cased beams and filler beam construction
8.1 General
8.2 Limit state requirements
8.3 Analysis of structure
35 8.4 Analysis of sections
8.5 Longitudinal shear
8.6 Temperature and shrinkage effects
36 8.7 Control of cracking
8.8 Design and construction
37 9 Permanent formwork
9.1 General
9.2 Materials
9.3 Structural participation
9.4 Temporary construction loading
9.5 Design
38 9.6 Special provisions for precast concrete or composite precast concrete permanent formwork
10 Use of friction grip bolts as shear connectors in composite beams
10.1 General
10.2 Design criteria: static loading
39 10.3 Fatigue
10.4 Other considerations
11 Composite columns
11.1 General
41 11.2 Moments and forces in columns
42 11.3 Analysis of column cross-section
45 Values of constants Cl and C2 for axially loaded concrete filled circular hollow sections
46 12 Influence of method of construction on design
12.1 Sequence of construction
12.2 Permanent formwork
13 Prestressing in composite construction
13.1 General
13.2 Methods of prestressing
47 13.3 Limit state requirements
13.4 Prestressing the steel beam
13.5 Stress limitations in concrete at transfer
13.6 Loss of prestress
48 (normative) Formulae and tables for the design of composite columns
(normative) Formulae and tables for the design of composite columns
Coefficient K1
Coefficient K2
General
Concrete-filled circular hollow sections
49 Concrete-encased steel sections and concrete-filled rectangular hollow sections
Coefficient K3
Concrete-filled circular hollow sections
Values of the coefficient K3 for encased sections and concrete-filled rectangular hollow sections
Ultimate moment of resistance, Mu, of composite columns
General
50 Equations for calculating Mu for concrete-encased steel sections and concrete-filled rectangular hollow sections
52 Equations for calculating Mu for concrete-filled circular hollow steel sections
53 Force diagrams for calculating Mu
54 Chart for evaluating Mu of concrete filled circular hollow section
BS 5400-5:2005
$176.74