ASCE Manual 115 2020
$59.58
ASCE Manuals and Reports on Engineering Practice 115: Pipe Ramming
Published By | Publication Date | Number of Pages |
ASCE | 2020 | 213 |
Prepared by the Pipe Ramming Task Force of the Trenchless Installation of Pipelines (TIPS) Committee of the Utility Engineering and Surveying Institute of ASCE
Pipe Ramming, Second edition, MOP 115, describes current pipe ramming practices in design and construction of pipelines under roads, railroads, streets, and other constructed and natural structures and obstacles.
Topics in this completely updated manual of practice include
- Overall pipe ramming process including culvert replacements, pipe crushing, slickbores, pipe extraction, and assists with horizontal directional drilling projects;
- Equipment selection and use; pipe diameter, grade, depth and route;
- Portals and shafts;
- Detailed site investigations;
- Regulations and land use;
- Cost considerations and environmental impacts;
- Geotechnical assessment in site investigations;
- Design process, hazard identifications, and site layout;
- Construction, job site, traffic control, and safety;
- Inspections and monitoring; and a
- List of pipe ramming case histories.
Providing both introductory and advanced information on pipe ramming methods, MOP 115 will be valuable to practicing engineers, utility owners, contractors, and other related professionals.
PDF Catalog
PDF Pages | PDF Title |
---|---|
2 | Pipe Ramming, 2E (MOP 115) |
3 | Copyright Page |
4 | Manuals and Reports on Engineering Practice |
6 | Contents |
10 | Preface |
12 | Acknowledgments |
14 | 1. Introduction |
18 | References |
20 | 2. Pipe Ramming Process 2.1 Introduction and Background 2.1.1 Introduction |
22 | 2.1.2 Background |
24 | 2.2 Method Description |
26 | 2.3 Equipment Selection and Setup 2.3.1 Guide Rails and Setting Grade |
27 | 2.3.2 Minimum Space Requirements |
29 | 2.3.3 Depth |
32 | 2.3.4 Hammer Selection |
33 | 2.3.5 Air Compressor |
34 | 2.3.6 Cutting Shoe |
37 | 2.3.7 Casing Selection and Wall Thickness |
39 | 2.3.8 Hammer Attachment |
42 | 2.3.9 Efficiency of Casing Penetration or Advancement |
45 | 2.3.10 Lubrication |
46 | 2.3.11 Joining Casing Pieces |
49 | 2.3.12 Spoil Removal 2.3.13 Carrier Pipe Installation |
54 | 2.4 Pilot Tube Guidance 2.4.1 Pilot Tube Installation |
55 | 2.4.2 Step-Up Casings and Installation Sequence 2.5 Typical Applications 2.5.1 Road and Railroad Crossings |
57 | 2.5.2 Culverts |
59 | 2.5.3 Pipe Crushing |
60 | 2.5.4 Slick Boring |
61 | 2.5.5 Pipe Extraction |
62 | 2.5.6 Combining Pipe Ramming and Horizontal Directional Drilling |
67 | References |
68 | 3. Planning 3.1 Initial Criteria |
69 | 3.1.1 Casing Diameter and Grade |
70 | 3.1.2 Depth |
71 | 3.1.3 Routing |
72 | 3.1.4 Portals, Shafts, and Working Space |
75 | 3.1.5 Sustainability |
76 | 3.1.6 Regulations 3.2 Site Conditions 3.2.1 Land Use |
77 | 3.2.2 Easements and Rights-of-Way |
78 | 3.2.3 Underground Utilities and Other Facilities |
79 | 3.2.4 Buried Objects 3.2.5 Contaminated Ground |
80 | 3.2.6 Special Considerations |
83 | 3.3 Preliminary Geotechnical Considerations |
84 | 3.4 Project Layout 3.4.1 Layout for Efficient Pipe Ram |
85 | 3.4.2 Alignment and Distance Considerations 3.4.3 Effects on Adjacent Structures |
86 | 3.5 Cost Considerations 3.5.1 Direct Cost of the Pipe Ramming |
90 | 3.5.2 Indirect Social Effect Costs |
93 | 3.5.3 Environmental Costs |
94 | 3.5.4 Risk Analysis |
95 | 3.5.5 Contingency Costs |
96 | References |
98 | 4. Detailed Site Investigations 4.1 General 4.2 Geotechnical Assessment |
99 | 4.2.1 Site Investigation |
103 | 4.2.2 Characterization of Subsurface Materials |
108 | 4.2.3 Geotechnical Reports |
109 | 4.2.4 Applicability of Pipe Ramming Based on Subsurface Conditions and Classification 4.3 Utility Surveys |
111 | 4.4 Traffic Flow and Access for Vehicles and Pedestrians |
112 | 4.5 Environmental Conditions |
113 | 4.6 Flood Zones |
114 | 4.7 Seismic Considerations |
115 | References |
118 | 5. Design 5.1 General |
119 | 5.2 Planning and Permitting 5.2.1 The Process |
120 | 5.2.2 Cost and Schedule |
121 | 5.2.3 Hazard Identification |
124 | 5.2.4 High Risk Hazards 5.2.5 Permitting and Design for Special Crossings |
125 | 5.3 Exploration 5.3.1 Planning an Exploration Program 5.3.2 Site Layout |
127 | 5.3.3 Geotechnical Considerations |
128 | 5.3.4 Groundwater 5.3.5 Ground Settlement or Heave |
129 | 5.3.6 Deviations in Line and Grade |
131 | 5.3.7 Appropriate Casing Size 5.3.8 Ram Length Limitations |
132 | 5.4 Design Considerations 5.4.1 Basis of Design 5.4.2 Selection of Line, Grade, and Tolerances |
133 | 5.4.3 Casing Material Selection and Dimensions |
134 | 5.4.4 Ground Response (Settlement, Heave, and Vibration) |
136 | 5.4.5 Joint Configuration |
137 | 5.4.6 Driving Resistance of the Casing |
138 | 5.5 Documentation |
140 | References |
142 | 6. Construction 6.1 General 6.2 Bidding |
143 | 6.3 Submittals |
144 | 6.3.1 Preconstruction Submittals |
147 | 6.3.2 Construction Submittals |
148 | 6.3.3 Postconstruction Submittals 6.4 Measurement and Payment |
151 | 6.5 Jobsite Layout and Equipment Setup |
152 | 6.6 Survey |
153 | 6.7 Launching and Receiving Shafts |
155 | 6.8 Steel Casing, Leading Edge Treatments, and Welding |
156 | 6.9 Safety Issues 6.10 Differing Site Conditions |
157 | 6.11 Traffic Control, Fencing, and Barricading 6.12 Quality Control |
158 | 6.13 Ramming Forces and Lubricants |
159 | 6.14 Spoil Removal and Disposal |
160 | 6.15 Inspection and Monitoring |
161 | 6.16 Reports and Records |
162 | 6.17 As-Built Drawings and Documentation References |
164 | 7. Summary of Recent Case Histories 7.1 General |
192 | Glossary |
206 | Index |