Individual (one engineer) - Member $995.00 | Non-Member $1159.00
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Instructors:
Stanley M. Miller, Ph.D., P.E.
Roch Player, P.E., D.GE
Purpose and Background
Slope instability and landslides account for millions of dollars of damage, primarily due to aging slopes constructed for major transportation systems in the U.S. during the 1950s and 1960s and the ever-increasing need to develop land on steep natural slopes and fills. Slopes often consist of heterogeneous native or transported earth materials and, thus, engineering characteristics are variable and difficult to estimate precisely. This variability is compounded by intermittent influence of surface water runoff and groundwater infiltration that often trigger landslide movements. This seminar focuses on three main topics relevant to slope stability analysis and stabilization:
- Sampling, testing, and estimating geotechnical material properties (soil and rock)
- Identifying potential slope failure modes and analyzing them with computer methods
- Designing and implementing slope stabilization methods
Benefits
- Exposure to geotechnical data acquisition, analysis, and characterization
- Review of analytical computer methods for soil and rock slope evaluation
- Introduction to probabilistic and risk assessment tools for slopes
- Exposure to slope stabilization evaluation and design, with multiple case studies
- Introduction to stabilization project management and contract documents
Learning Outcomes
Upon completion of this course, you will be able to:
- Explain fundamental geotechnical testing and analysis methods for characterizing soil and rock properties input to slope stability analysis methods
- List basic geotechnical tools used in rock slope engineering and identify the three key steps in a rock slope stability analysis
- Explain commonly used slope stability analysis methods and how to apply specific ones to help select and design stabilization options
- Explain the variability and uncertainty in estimating geotechnical characteristics, and apply methods to quantify that during slope stability risk evaluations
- Explain slope stabilization options and understand how these projects are designed, bid, contracted, and implemented
Assessment of Learning Outcomes
Achievement of the learning outcomes will be assessed through a series of problem-solving exercises.
Who Should Attend?
This is a course for professionals seeking a more quantitative analysis of slope stability and relevant slope stabilization methods. Best suited for civil engineers, consultants, engineering geologists, soil scientists, city and public works officials, city planners, and other design professionals who address construction related slope stability and stabilization issues.
Outline
Day 1
- Soil and rock sampling and testing
- Site reconnaissance for problem slopes; what makes a good RFP for slope remediation
- Rock mass characteristics and strength
- Overview of slope stability analysis methods
- Shallow and deep-seated stabilization options
Day 2
- Using back-analysis to help confirm strength and groundwater estimates
- Budgeting and bidding stabilization projects
- Introduction to probabilistic and risk assessments for slopes
- Slope stabilization case studies
- Tips for project report writing, management, and contracting
How to Earn your CEUs/PDHs and Receive Your Certificate of Completion
This course is worth 1.4 CEUs/14 PDHs. To receive your certificate of completion, you will need to complete a short on-line post-test and receive a passing score of 70% or higher within 30 days of the course.
Seminar Location and Hotel
Hilton Lake Las Vegas Resort & Spa
1610 Lake Las Vegas Pkwy
Henderson, NV 89011
(702) 567-4700
Room rate: $170 per night*
Reserve your room today! Call 1-855-227-6800 and use the code ASCE22
*Rates do not include tax and a $25 daily resort fee. Discounted room rates are based upon availability through September 2, 2022.