Steel Structure Design Review
The Design review on Steel structures is conducted according to AWS D1.1/API RB2A/ISO/EEMUA 158
Checking all design parameters of steel structure’s components (beams ,columns, floors, foundation and connections) including (load combinations and stresses, number of steel bars, steel grade, etc....…)
The scope of our review is to ensure safety and serviceability of the structure to be able to support different types of loads
No. |
Type |
Format |
Title |
Edition |
Description |
Author |
Availability |
1 |
S |
|
API 2C - Offshore Pedestal-mounted Cranes |
2013 |
API Specification 2C, 8th Edition, Offshore Pedestal-mounted Cranes, incorporates two new design methodologies related to structural considerations and subsea lifting. API Spec 2C is also part of API’s Monogram program, which certifies the manufacturing process for select products used by the industry. |
API |
Upon Request |
3 |
RP |
|
API RP 2A - Planning Designing, and Constructing Fixed Offshore Platforms - Working Stress Design |
2014 |
This recommended practice is based on global industry best practices and serves as a guide for those who are concerned with the design and construction of new fixed offshore platforms and for the relocation of existing platforms used for the drilling, development, production, and storage of hydrocarbons in offshore areas. This publication serves as a guide for the design and construction of new platforms and for the relocation of existing platforms used for the drilling, development, and storage of hydrocarbons in offshore areas. In addition, these guidelines shall be used in conjunction with API 2SIM for the assessment of existing platforms in the event that it becomes necessary to make a determination of the fitness-for-purpose of the structure. Reference in this document is made to the 1989 edition of the AISC Specification for Structural Steel Buildings—Allowable Stress Design and Plastic Design. The use of later editions of AISC specifications is specifically not recommended for design of offshore platforms. The load and resistance factors in these specifications are based on calibration with building design practices and may not be applicable to offshore platforms. Research work is now in progress to incorporate the strength provisions of the new AISC code into API offshore design practices. |
API |
Upon Request |
4 |
RP |
|
API- RP 2SIM - Structural Integrity Management of Fixed Offshore Structures |
2014 |
This recommended practice provides guidance for the structural integrity management (SIM) of existing fixed offshore structures used for the drilling, development, production, and storage of hydrocarbons in offshore areas. However, the general principles of SIM apply to any structure. |
API |
Upon Request |
5 |
TR |
|
API TR 938-C - Use of Duplex Stainless Steels in The Oil Refining Industry |
2011 |
This report covers many of the "lean", "standard", "super", and "hyper" grades of duplex stainless steels (DSSs) most commonly used within refineries. The definitions of these terms have not been firmly established by the industry, and vary between literature references and materials suppliers. Table 1 shows how the various grades are being classified into "families" for the purposes of this report. The UNS numbers of the standard grades being used for corrosive refining services |
API |
Upon Request |
6 |
C |
|
AWS D1.1 - Structural Welding Code - Steel |
2020 |
The New D1.1 spells out the requirements for design, procedures, qualifications, fabrication, inspection and repair of steel structures made of tubes, plate and structural shapes that are subject to either static or cyclic loading. Editorial changes to the text and commentary have been undertaken in the D1.1:2015 edition to improve clarity and understanding of the provisions of the code. |
AWS |
Upon Request |
7 |
C |
|
AWS D1.2 - Structural Welding Code - Aluminum |
2014 |
This code covers the welding requirements for any type structure made from aluminum structural alloys, except for aluminum pressure vessels and pressure piping. Clauses 1 through 8 constitute a body of rules for the regulation of welding in aluminum construction. A commentary on the code is also included with the document. |
AWS |
Upon Request |
8 |
C |
|
AWS D1.3 - Stractural Welding Code - Sheet Steel |
2018 |
This code covers the requirements associated with welding sheet steel having a minimum specified yield point no greater than 80 ksi [550 MPa]. The code requirements cover any welded joint made from the commonly used structural quality |
AWS |
Upon Request |
9 |
C |
|
AWS D1.4 - Stractural Welding Code - Steel Reinforcing Bars |
2018 |
This code covers the requirements for welding steel reinforcing bars in most reinforced concrete applications. It contains a body of rules for the regulations of welding steel reinforcing bars and provides suitable acceptance criteria for such welds. |
AWS |
Upon Request |
10 |
C |
|
AWS D1.5 - Bridge Welding Code |
2020 |
This code covers the welding requirements for welded bridges made from carbon and low-alloy constructional steels and designed to AASHTO or AREMA requirements. This 2020 edition contains dimensions in metric SI Units and U.S. Customary Units. Clauses 1 through 9 constitute a body of rules for the regulation of welding in steel construction. Clauses 10 and 11 do not contain provisions, as their analogue D1.1 sections are not applicable to the D1.5 code. Clause 12 contains the requirements for fabricating fracture critical members. |
AWS |
Upon Request |
11 |
C |
|
AWS D1.6 - Stractural Welding Code - Stainless Steel |
2017 |
AWS D1.6/D1.6M:2017 contains welding requirements for the fabrication, assembly, and erection of welded structures and weldments subject to design stress where at least one of the materials being joined is stainless steel. The code is intended to be used for base metals with a minimum thickness of 1/16 in [1.5 mm] or 16 gage. It shall be used in conjunction with any complementary code or specification for the design or construction of stainless steel structures and weldments. When this code is stipulated in contract documents, conformance with all provisions of the code shall be required, except for those provisions that the Engineer (see 1.5.1) or contract documents specifically modify or exempt. |
AWS |
Upon Request |
12 |
C |
|
AWS D1.8 - Stractural Welding Code - Seismic Supplement |
2021 |
This document supplements the requirements to the D1.1/D1.1M Structural Welding Code as it relates to seismic provisions. It is intended to cover common applications to welded joints in Seismic Force Resisting Systems designed in accordance with the American Institute of Steel Construction, Inc. Seismic Provisions. Covers additional controls on detailing, materials, workmanship, testing, and inspection necessary to achieve adequate performance of welded steel structures under conditions of severe earthquake-induced inelastic straining. |
AWS |
Upon Request |
13 |
C |
|
AWS D1.9 - Stractural Welding Code - Titanium |
2015 |
This code covers the requirements for design and welding of any type of titanium structure. Titanium pressure vessels and fluid-carrying pipe lines are specifically excluded. Clauses 1 through 5 and Annex A constitute a body of rules for the regulation of welding in titanium construction. A commentary on the code is also included with the document. |
AWS |
Upon Request |
14 |
C |
|
AWS D9.1- Sheet Metal Welding Code |
2000 |
This code covers the arc and braze welding requirements for nonstructural sheet metal fabrications using the commonly welded metals available in sheet form. Requirements and limitations governing procedure and performance qualification are presented, and workmanship and inspection standards are supplied. The informative annexes provide useful information on materials and processes. |
AWS |
Upon Request |
15 |
C |
|
BS 6187 - Code of practice for full and partial demolition |
2011 |
BS 6187 on demolition gives good practice recommendations for the demolition (both full and partial) of facilities, including buildings and structures. It applies to demolition activities undertaken as part of a structural refurbishment and also covers decommissioning. |
BS |
Upon Request |
16 |
S |
|
BS 7191 - Weldable Structure Steels For Fixed Offshore Structures |
1989 |
BS 7191 - Specification for Weldable Structural Steels for Fixed Offshore Structures Plates, sections and seamless tubulars with minimum yield strengths up to 450 N/mm2 and impact properties down to -40 °C |
BS |
Upon Request |
17 |
S |
|
BS EN 1090-3 - Execution of Steel Structures and Aluminum Structures |
2019 |
This document specifies requirements for the execution of aluminium structural components and structures made from: a) rolled sheet, strip and plate; b) extrusions; c) cold drawn rod, bar and tube; d) forgings; e) castings. NOTE 1 The execution of structural components is referred to as manufacturing, in accordance with EN 1090-1. This document specifies requirements independent of the type and shape of the aluminium structure, and this document is applicable to structures under predominantly static loads as well as structures subject to fatigue. It specifies requirements related to the execution classes that are linked with consequence classes. NOTE 2 Consequence classes are defined in EN 1990. NOTE 3 Recommendations for selection of execution class in relation to consequence class are given in EN 1999-1-1. This document covers components made of constituent products with thickness not less than 0,6 mm for welded components not less than 1,5 mm. For components made from cold formed profiled sheeting that are within the scope of EN 1090-5, the requirements of EN 1090-5 take precedence over corresponding requirements in this document. This document applies to structures designed according to the relevant parts of EN 1999. If this document is used for structures designed according to other design rules or used for other alloys and tempers not covered by EN 1999, a judgement of the reliability elements in these design rules is intended to be made. This document specifies requirements for surface preparation prior to application of a protective treatment, and gives guidelines for application for such treatment in an informative annex. This document gives options for specifying requirements to match project specific requirements. This document is also applicable to temporary aluminium structures. |
BS |
Upon Request |
18 |
S |
|
BS EN ISO 19901-1 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 1 - Metocean Design and OPerating Considarations |
2015 |
ISO 19901-1:2015 gives general requirements for the determination and use of meteorological and oceanographic (metocean) conditions for the design, construction and operation of offshore structures of all types used in the petroleum and natural gas industries. The requirements are divided into two broad types: |
BS |
Upon Request |
19 |
S |
|
BS EN ISO 19901-2 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 2 - Seismic Design Procedures and Criteria |
2017 |
ISO 19901-2:2017 contains requirements for defining the seismic design procedures and criteria for offshore structures; guidance on the requirements is included in Annex A. The requirements focus on fixed steel offshore structures and fixed concrete offshore structures. The effects of seismic events on floating structures and partially buoyant structures are briefly discussed. The site-specific assessment of jack-ups in elevated condition is only covered in ISO 19901-2:2017 to the extent that the requirements are applicable. |
BS |
Upon Request |
20 |
S |
|
BS EN ISO 19901-3 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 3 - Topsides Structure |
2014 |
EN ISO 19901-3 Petroleum and natural gas industries - Specific requirements for offshore structures - Part 3: Topsides structure - ISO 19901-3:2014 gives requirements for the design, fabrication, installation, modification and structural integrity management for the topsides structure for an oil and gas platform. It complements ISO 19902, ISO 19903, ISO 19904-1, ISO 19905-1 and ISO 19906, which give requirements for various forms of support structure. Requirements in this part of ISO 19901 concerning modifications and maintenance relate only to those aspects that are of direct relevance to the structural integrity of the topsides structure. ISO 19901-3:2014 is applicable to the topsides of offshore structures for the petroleum and natural gas industries, as follows: •topsides of fixed offshore structures; •discrete structural units placed on the hull structures of floating offshore structures and mobile offshore units; •certain aspects of the topsides of arctic structures. ISO 19901-3:2014 contains requirements for, and guidance and information on, the following aspects of topsides structures: •design, fabrication, installation and modification; •in-service inspection and structural integrity management; •assessment of existing topsides structures; •reuse; •decommissioning, removal and disposal; •prevention, control and assessment of fire, explosions and other accidental events. ISO 19901-3:2014 applies to structural components including the following: •primary and secondary structure in decks, module support frames and modules; •flare structures; •crane pedestal and other crane support arrangements; •helicopter landing decks (helidecks); •permanent bridges between separate offshore structures; •masts, towers and booms on offshore structures. |
BS |
Upon Request |
21 |
S |
|
BS EN ISO 19901-4 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 4 - Geotechnical and Foundation Design Consideration |
2016 |
EN ISO 19901-4 Petroleum and natural gas industries - Specific requirements for offshore structures - Part 4: Geotechnical and foundation design considerations - ISO 19901-4:2016 contains provisions for those aspects of geoscience and foundation engineering that are applicable to a broad range of offshore structures, rather than to a particular structure type. Such aspects are: - site and soil characterization; - identification of hazards; - design and installation of shallow foundations supported by the seabed; - design and installation of pile foundations; - soil-structure interaction for auxiliary structures, e.g. subsea production systems, risers and flowlines (guidance given in A.10); - design of anchors for the stationkeeping systems of floating structures (guidance given in A.11). Particular requirements for marine soil investigations are detailed in ISO 19901-8. Aspects of soil mechanics and foundation engineering that apply equally to offshore and onshore structures are not addressed. The user of this part of ISO 19901 is expected to be familiar with such aspects. ISO 19901-4 outlines methods developed primarily for the design of shallow foundations with an embedded length (L) to diameter (D) ratio L/D < 1 (Clause 7) and relatively long and flexible pile foundations with L/D > 10 (Clause 8). This part of ISO 19901 does not apply to intermediate foundations with 1 < L/D < 10. Such intermediate foundations, often known as 'caisson foundations', comprise either shallow foundations with skirts penetrating deeper into the seabed than the width of the foundation, or shorter, more rigid and larger diameter piles than those traditionally used for founding offshore structures. The design of such foundations can require specific analysis methods; it is important that any extrapolation from the design methods described in this part of ISO 19901 to intermediate foundations be treated with care and assessed by a geotechnical specialist. |
BS |
Upon Request |
22 |
S |
|
BS EN ISO 19901-5 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 5 - Weight Control During Engineering and Construction |
2003 |
ISO 19901:2016 specifies requirements for controlling the weight and centre of gravity (CoG) by means of mass management during the engineering and construction of structures for the offshore environment. The provisions are applicable to offshore projects that include structures of all types (fixed and floating) and materials. These structures can be complete new installations or the modifications to existing installations. Maintaining the weight control of existing installations is not part of the main body of this part of ISO 19901, but some guidance on this is included in the Annex G. ISO 19901:2016: - specifies quality requirements for reporting of weights and centres of gravity; - specifies requirements for weight reporting; - provides a basis for overall project weight reports or management reports for all weight control classes; - specifies requirements for weight and load budgets; - specifies the methods and requirements for the weighing and the determination of weight and CoG of major assemblies; - specifies requirements for weight information from suppliers, including weighing of equipment and bulk materials for offshore installations. It can be used: - as a basis for planning, evaluating and presenting the client's, contractor's or fabricator's weight management and reporting system; - as a means of refining the structural analysis or model; - as a contract reference between client, contractor and suppliers; - as a basis for costing, scheduling or determining suitable fabrication method(s) or location(s). |
BS |
Upon Request |
23 |
S |
|
BS EN ISO 19901-6 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 6 - Marine Operations |
2009 |
ISO 19901:2016 specifies requirements for controlling the weight and centre of gravity (CoG) by means of mass management during the engineering and construction of structures for the offshore environment. The provisions are applicable to offshore projects that include structures of all types (fixed and floating) and materials. These structures can be complete new installations or the modifications to existing installations. Maintaining the weight control of existing installations is not part of the main body of this part of ISO 19901, but some guidance on this is included in the Annex G. ISO 19901:2016: - specifies quality requirements for reporting of weights and centres of gravity; - specifies requirements for weight reporting; - provides a basis for overall project weight reports or management reports for all weight control classes; - specifies requirements for weight and load budgets; - specifies the methods and requirements for the weighing and the determination of weight and CoG of major assemblies; - specifies requirements for weight information from suppliers, including weighing of equipment and bulk materials for offshore installations. It can be used: - as a basis for planning, evaluating and presenting the client's, contractor's or fabricator's weight management and reporting system; - as a means of refining the structural analysis or model; - as a contract reference between client, contractor and suppliers; - as a basis for costing, scheduling or determining suitable fabrication method(s) or location(s). |
BS |
Upon Request |
24 |
S |
|
BS EN ISO 19901-7 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 7 - StationKeeping Systems For Floating Offshore Structures and Mobile Offshore Units |
ISO 19901-7:2013 specifies methodologies for - the design, analysis and evaluation of stationkeeping systems for floating structures used by the oil and gas industries to support production, storage, drilling, well intervention and production, production and storage, drilling, well intervention, production and storage, and - the assessment of stationkeeping systems for site-specific applications of mobile offshore units (e.g. mobile offshore drilling units, construction units, and pipelay units). ISO 19901-7:2013 is applicable to the following types of stationkeeping systems, which are either covered directly in ISO 19901-7:2013 or through reference to other guidelines: - spread moorings (catenary, taut-line and semi-taut-line moorings); - single point moorings, anchored by spread mooring arrangements; - dynamic positioning systems; - thruster-assisted moorings. Descriptions of the characteristics and of typical components of these systems are given in an informative annex. The requirements of ISO 19901-7:2013 mainly address spread mooring systems and single point mooring systems with mooring lines composed of steel chain and wire rope. ISO 19901-7:2013 also provides guidance on the application of the methodology to synthetic fibre rope mooring systems, and includes additional requirements related to the unique properties of synthetic fibre ropes. ISO 19901-7:2013 is applicable to single anchor leg moorings (SALMs) and other single point mooring systems (e.g. tower soft yoke systems) only to the extent to which the requirements are relevant. ISO 19901-7:2013 is not applicable to the vertical moorings of tension leg platforms (TLPs). |
BS |
Upon Request |
|
25 |
S |
|
BS EN ISO 19901-8 - Petroleum and Natural Gas Industries - Specific Requirements For Offshore Structures - Part 8 - Marine Soil Investigations |
2015 |
EN ISO 19901-8 Petroleum and natural gas industries - Specific requirements for offshore structures - Part 8: Marine soil investigations - ISO 19901-8 specifies requirements, and provides recommendations and guidelines for marine soil investigations regarding: a) objectives, planning and execution of marine soil investigations; b) deployment of investigation equipment; c) drilling and logging; d) in situ testing; e) sampling; f) laboratory testing; and g) reporting. Rock materials are only covered by ISO 19901-8 to the extent that ordinary marine soil investigation tools can be used, e.g. for chalk, calcareous soils, cemented soils or similar soft rock. ISO 19901-8: is intended for clients, soil investigation contractors, designers, installation contractors, geotechnical laboratories and public and regulatory authorities concerned with marine soil investigations for any type of offshore and nearshore structures, or geohazard assessment studies, for petroleum and natural gas industries. |
BS |
Upon Request |
26 |
S |
|
BS EN ISO 19901-9 - Petroleum and Natural Gas Industries - Specific requirements for offshore structures Part 9- Structural integrity management 2019 |
2019 |
This document specifies principles for the structural integrity management (SIM) of offshore structures subjected to known or foreseeable types of actions. |
BS |
Upon Request |
28 |
HB |
|
Design of Steel Structures for Buildings in Seismic Areas |
2017 |
This volume elucidates the design criteria and principles for steel structures under seismic loads according to Eurocode 8-1. Worked Examples illustrate the application of the design rules. Two case studies serve as best-practice samples. |
Luís Simões da Silva |
Upon Request |
29 |
HB |
|
Design of Steel Structures to Eurocodes |
2019 |
This textbook describes the rules for the design of steel and composite building structures according to Eurocodes, covering the structure as a whole, as well as the design of individual structural components and connections. It addresses the following topics: the basis of design in the Eurocodes framework; the loads applied to building structures; the load combinations for the various limit states of design and the main steel properties and steel fabrication methods; the models and methods of structural analysis in combination with the structural imperfections and the cross-section classification according to compactness; the cross-section resistances when subjected to axial and shear forces, bending or torsional moments and to combinations of the above; component design and more specifically the design of components sensitive to instability phenomena, such as flexural, torsional and lateral-torsional buckling (a section is devoted to composite beams); the design of connections and joints executed by bolting or welding, including beam to column connections in frame structures; and alternative configurations to be considered during the conceptual design phase for various types of single or multi-storey buildings, and the design of crane supporting beams. In addition, the fabrication and erection procedures, as well as the related quality requirements and the quality control methods are extensively discussed (including the procedures for bolting, welding and surface protection). The book is supplemented by more than fifty numerical examples that explain in detail the appropriate procedures to deal with each particular problem in the design of steel structures in accordance with Eurocodes. The book is an ideal learning resource for students of structural engineering, as well as a valuable reference for practicing engineers who perform designs on basis of Eurocodes. |
Ioannis Vayas |
Upon Request |
30 |
HB |
|
Design of Steel Structures |
2007 |
This book provides an extensive coverage of the design of steel structures in accordance with the latest code of practice for general construction in steel. The text is based on the modern limit states approach to design and covers areas such as the properties of steel, types of steel |
N. Subramanian |
Upon Request |
31 |
HB |
|
Design of welded steel structures - principles and practice-CRC Press |
2016 |
Design of Welded Steel Structures: Principles and Practice provides a solid foundation of theoretical and practical knowledge necessary for the design of welded steel structures. The book begins by explaining the basics of arc welding, describing the salient features of modern arc welding processes as well as the types and characteristics of welded joints, their common defects, and recommended remedial measures. The text then: |
Utpal K. Ghosh |
Upon Request |
32 |
Paper |
|
Design procedure for steel frame structure according to BS 5950 |
N/A |
Structural design is grossly abbreviated name of an operation, which for major projects may involve the knowledge of hundreds of experts from a variety of disciplines. A code of practice may therefore be regarded as a consensus of what is considered acceptable at the time it was written, containing a balance between accepted practice and recent research presented in such a way that the information should be of immediate use to the design engineer. As such, it is regarded more as an aid to design, which includes allowable stress levels, member capacities, design formulae and recommendations for good practice, rather than a manual or textbook on design. |
N/A |
Upon Request |
33 |
RP |
|
DNVGL-RP-C301 - Design, fabrication, operation and qualificationof bonded repair of steel structure |
2015 |
The main objectives of this recommended practice (RP) are to: |
DNV-GL |
Upon Request |
34 |
S |
|
EEMUA 158 - Construction Specification For Fixed Offshore Structures |
2014 |
this publication defines the essential requirements for cost effective construction of primary structures of offshore installations. Topics include material requirements, allowable welding consumables, welding quality and personnel requirements, fabrication tolerances as well as inspection and non-destructive testing acceptance levels. The latest edition incorporates any necessary considerations for offshore wind constructions, while the rest of the publication has been updated in accordance with the latest versions of the relevant regulations and standards. This Publication reflects a consensus view of offshore construction companies with regard to both fabrication and acceptance criteria for structures to be installed worldwide. |
EEMUA |
Upon Request |
36 |
S |
|
ISO 19902 - Petroleum and Natural Gas Industries - Fixed Steel Offshore Structures - Amendment 1 |
2013 |
This document specifies requirements and provides recommendations applicable to the following types of fixed steel offshore structures for the petroleum and natural gas industries: ? caissons, free-standing and braced; ? jackets; ? monotowers; ? towers. In addition, it is applicable to compliant bottom founded structures, steel gravity structures, jack-ups, other bottom founded structures and other structures related to offshore structures (such as underwater oil storage tanks, bridges and connecting structures). This document contains requirements for planning and engineering of the design, fabrication, transportation and installation of new structures as well as, if relevant, their future removal. NOTE 1 Specific requirements for the design of fixed steel offshore structures in arctic environments are presented in ISO 19906. NOTE 2 Requirements for topsides structures are presented in ISO 19901-3; for marine operations in, ISO 19901‑6; for structural integrity management, in ISO 19901-9 and for the site-specific assessment of jack-ups, in ISO 19905‑1. |
ISO |
Upon Request |
37 |
Paper |
DOCX |
ISO 19902 - Steel Structure Acceptance criteria |
2007 |
This Paper Covers and identifies the acceptance criteria according to ISO 19902 |
ISO |
Free |
38 |
HB |
|
Light Gauge Metal Structure Recent Advances |
N/A |
The aim of this book is to review recent research and technical advances, including the progress in design codes, related to the engineering applications of light gauge metal sections made in carbon, high strength and stainless steel, as well as aluminium alloys. Included is a review of the new technologies for connections of light gauge metal members. Main advanced applications, for residential, non residential and industrial buildings and pallet rack systems are also covered. For the first time, this book takes into account all the metallic materials now used more and more for structural components. The book will be of great interest not only for researchers but also for design engineers faced to the use of new metallic materials in modern structural applications. |
JACQUES RONDAL |
Upon Request |
40 |
HB |
|
Structural Steel Design to Eurocode 3 and AISC Specifications |
2016 |
Structural Steel Design to Eurocode 3 and AISC Specifications deals with the theory and practical applications of structural steel design in Europe and the USA. The book covers appropriate theoretical and background information, followed by a more design‐oriented coverage focusing on European and United States specifications and practices, allowing the reader to directly compare the approaches and results of both codes. Chapters follow a general plan, covering: • A general section covering the relevant topics for the chapter, based on classical theory and recent research developments • A detailed section covering design and detailing to Eurocode 3 specification • A detailed section covering design and detailing to AISC specifications Fully worked examples are using both codes are presented. With construction companies working in increasingly international environments, engineers are more and more likely to encounter both codes. Written for design engineers and students of civil and structural engineering, this book will help both groups to become conversant with both code systems. |
Claudio Bernuzzi |
Upon Request |
41 |
HB |
|
Tubular Steel Structures - Theory and Design |
2nd |
Tubular Steel Structures presents guidelines for the structural analysis and design of thin-walled, large-diameter tubular structures, principally stacks, bins, horizontal storage tanks, pipelines and conveyor galleries. Dr. Troitsky presents the material systematically in 12 chapters, addressing such problems as edge effect and buckling stability. Derivations of equations, analysis, and formulas are also included. Recently revised. |
Mr. Troitsky |
Upon Request |
42 |
HB |
|
Typical Weelding Procedure Specifications for Structure Steelwork |
1988 |
Scope This document is intended for use by steelwork contractors, welding engineers and inspectors, and those actively involved in welding and welding technology. Familiarity with BS EN ISO 15614, BS EN 287, and the welding principles contained in BS EN 1011 is required. Structural capacity checking and weld inspection are not addressed in this document. This document contains 14 preliminary Welding Procedure Specifications (pWPS) written in accordance with the requirements of BS EN ISO 15609-1. They cover the welding of plate and rolled sections up to 25mm thick in carbon manganese structural steels to BS EN 10025, with a maximum carbon equivalent value (CEV) of 0.45 (1) (see BS EN 1011-2 Clause C.2.1). The maximum combined thickness is limited to 75mm. The welding process is solid wire partly mechanised Metal-arc Active Gas (MAG), process 135 in BS EN ISO 4063. It is assumed that preparation, control and use of a suitable consumable will achieve a hydrogen content of 5ml/100g or below in the deposited weld metal i.e. Scale D in BS EN 1011-2, Table C.2. In order to achieve the required hydrogen content, the steelwork contractor should ensure that consumables are stored and used in accordance with manufacturers' recommendations - i.e. they should be kept clean, dry and free from contamination. The welding parameters proposed in the pWPS are designed to produce welds which meet the mechanical requirements of BS EN 10025 steel grades up to and including S355J2; with a minimum Charpy impact value of 27J at -20°C. |
Mr Jeff Garner |
Upon Request |
43 |
Presentation |
|
weldability and structure steels |
N/A |
Lecture outline |
N/A |
Free |