Slope Stabilization and Landslide Prevention Seminar
DISCLAIMER
Before purchasing, review the rules of your licensing or certifying entity. It is your responsibility to confirm this course meets your CE requirements. See the credit tab on the course page for details.
What’s Included: Full webinar recording, written course materials, expert instruction, a mandatory quiz, and a certificate upon completion.
Deliverability Timeline: All courses are generally available within 1-2 weeks after the live presentation.
CE Credits: AIA and/or LA/CES accreditation is available by request for courses recorded prior to March 11, 2026. All courses after that date include those accreditations by default, if applicable. With these accreditations, our courses qualify for credit in nearly all states for engineers, surveyors, architects, and landscape architects.
Learn more about the on-demand format in our FAQ or contact us at (715) 835-5900 or customerservice@halfmoonseminars.org
Agenda
Registration: 8:00 – 8:30 am
Morning Session: 8:30 – 11:45 am
Lunch (On your own): 11:45 am – 12:45 pm
Afternoon Session: 12:45 – 4:45 pm
Slope Mechanics and Movement
J.S. Kite
Slope stability basics
Types of slope movement and instability
• Rock fall
• Planar slides
• Slumps
• Debris flow
Identifying slope stability issues
• Evaluating geologic conditions, soils and topography
• Natural slopes
• “Engineered” slopes
Appalachian landslide risk assassments
Common Mistakes and Prevention of Landslides
D. Sharp
Poor drainage conditions
Improper construction practices
• Soft foundations
• Unsuitable materials
• Improper construction methods (e.g. compaction)
• Sliver fills
• Removing existing hillside support
Recognizing problem areas
Lack of maintenance
Materials for Slope Stabilization
C. Grose
Providing proper drainage and slope reconstruction
Slope buttressing
Slope stabilization options
• Segmental block walls
• Soldier beam and lagging walls
• Reinforced soil slopes
Revegetation and maintenance
Preserving and Restoring Rivers, Streams and Shorelines
J.S. Kite
Broken watersheds lead to broken streambanks
Fixing broken streambanks
Issues on large rivers and lock and dam systems
Dams and lakeshores
Credits
Professional Engineers
6.5 PDHs
Architects
6.5 Cont. Ed. Hours (HSW)
6.5 AIA HSW Learning Units
Landscape Architects
6.5 HSW PDHs
6.5 LA/CES HSW PDHs
Floodplain Managers
6.5 ASFPM CECs
Contractors
Non-Credit Continuing Ed.
Continuing Education Credit Information
This seminar is open to the public and offers 6.5 PDHs to professional engineers, 6.5 HSW PDHs to landscape architects, and 6.5 HSW (Public Protection) continuing education hours to architects in most states, including West Virginia. Educators and courses are not subject to preapproval in West Virginia.
This event has been approved by the American Institute of Architects for 6.5 HSW Learning Units (Sponsor No. J885). Only full attendance can be reported to the AIA/CES.
The Landscape Architecture Continuing Education System has approved this course for 6.5 HSW PDHs. Only full attendance can be reported to the LA/CES.
HalfMoon Education is an approved continuing education sponsor for engineers in Florida, Indiana (License No. CE21700059), Maryland, New Jersey (Approval No. 24GP00000700), New York (NYSED Sponsor No. 35), North Carolina, and North Dakota. HalfMoon Education is deemed an approved continuing education sponsor for New York architects and landscape architects.
The Association of State Floodplain Managers has approved this event for 6.5 CECs
This seminar offers a non-credit continuing education opportunity to construction contractors. It has not beenreviewed by any state contractor licensing entity for continuing education purposes.
Attendance will be monitored, and attendance certificates will be available after the seminar for most individuals who complete the entire event. Attendance certificates not available at the seminar will be mailed to participants within fifteen business days.
Speakers
Christopher Grose
Potesta & AssociatesSenior Engineering Associate with Potesta & Associates with offices in Charleston and Morgantown, West Virginia, and Winchester, Virginia
Mr. Grose has geological/geotechnical engineering experience related to subsurface exploration studies, soil and rock slope design, landslide causation studies, foundation system design, surface/subsurface hydrogeology, ground subsidence, contaminant transport and groundwater flow modeling. He has experience in planning, design, and permitting of natural gas production well pads and access roads. Mr. Grose has studied hazardous waste remediation sites, compiled CERCLA/SARA, RI, and FS reports and worked on geological and geotechnical aspects of siting and design of municipal and industrial waste landfills. His civil/site design experience includes slope stability of both cut and fill slopes in soil and rock for various well production pads in northeastern West Virginia associated with natural gas production in the Marcellus well field. Mr. Grose’s work has consisted of the management of a design engineering team including ground survey crews to development site topographic base mapping, and coordination with clients regarding land ownership, access roadway alignments, site drainage control, and number/location of production wells. Additionally, his work has also included gathering and midstream transmission pipeline locations. The scope of services for these projects also included the preparation of permit documents and attachments for submittal to the West Virginia Department of Environmental Protection-Office of Oil and Gas.
J. Kite
West Virginia University MorgantownPast-Chair and Associate Professor of Geology & Geography West Virginia University Morgantown
Dr. Steve Kite’s research interests are in the geomorphology and late Cenozoic history of the Appalachian Mountains and the processes that dominate this ecologically-rich landscape. Surficial geology mapping is a favorite approach to understanding landscapes, relying on a balance of traditional field work techniques with manipulation of LiDAR and other digital data. His current research focuses on landslide risk assessment, cold-air traps that act as floral and faunal refugia, the geomorphic evolution of the Ohio and New River basins, and New World geoarcheology. Professor Kite’s Quaternary geology research includes the evolution of Appalachian slopes, debris fans, terraces and floodplains; the paleohydrology of proglacial lakes and outwash terraces; and the Pleistocene history of Appalachian fluvial systems. This research draws upon understanding of geomorphology, slope process, surface-water hydrology, hydroclimatology, pedology, biogeography, paleoecology, sedimentology, and karst and cave studies. Modern geomorphology research usually includes some focus on man as a geomorphic agent, and Professor Kite’s primary focus is the human activity with the greatest impact in the Appalachian region: surface coal mining, but also includes the effects of agriculture, logging, and other land uses, such as ecological restoration. Several geoarcheological projects have involved grad students, whose contributions have included development of models for landscape genesis, reconstruction of late Quaternary environments, development of archeological testing strategies, and guidance over excavation. His geoarcheological research has covered an array of sites, ranging from Paleo-Indian and Early Archaic sites on the Ohio and Kanawha rivers to 19th century mills.
David Sharp
Potesta & AssociatesBranch Manager/Senior Engineer with Potesta & Associates with offices in Charleston and Morgantown, West Virginia, and Winchester, Virginia
Mr. Sharp has been involved with many aspects of civil engineering with a special interest in the geotechnical/environmental aspects. His responsibilities have included projects involving civil/site design; geotechnical design; solid waste management facility design, including geosynthetic applications; hydrologic and hydraulic design; transportation/highway projects, including geotechnical and right-of-way plans; and municipal water and wastewater projects. Mr. Sharp’s geotechnical engineering responsibilities have included performing subsurface investigations, preparing geotechnical reports, coordinating laboratory analysis programs, and providing recommendations for lateral earth pressures, bearing capacities, modulus of subgrade reactions, settlements and construction specifications for multi-story structures. He has served as an expert witness in numerous cases involving geotechnical issues, earthwork construction, and/or drainage issues. Many of these cases involved a review of available information, development of professional opinions, and issuance of expert reports, depositions and expert testimony.