Try Claude
Academic ResearchSearch papers, authors, citations
AI Tools for Geotechnical Engineers
AI tools that help geotechnical engineers monitor seismic and earthquake data, research soil and foundation engineering, look up ocean and geological data, generate boring log diagrams, and stay current with geotechnical codes.
Get started for free
Works in Chat, Cowork and Code
DateMagnitudeDepth (km)
Feb 14M4.118
Jan 22M3.824
Dec 9M3.612
9 events found · USGS feed
Seismic hazard assessment and monitoring
Pull real-time and historical earthquake data for any location to assess seismic hazard, characterize site-specific ground motion potential, and inform ASCE 7 seismic design category determinations.
Pull all M4.0+ earthquakes recorded within 50 miles of Salt Lake City in the last 10 years. Show depth, distance, and which fault system each is attributed to.
Found 31 events. Dominant source: Wasatch Fault Zone (18 events). Largest: M5.7 Magna earthquake (2020, 11km depth, 19 miles SW). Average focal depth: 9.4 km. Hazard note: Wasatch Front capable of M7.0+ — deterministic scenario controls for most Salt Lake City sites.
ToolRouter get_recent
DateMagnitudeDepth (km)
Mar 18, 2020M5.7 (Magna)11
Sep 2, 2022M4.38
Jul 14, 2021M4.114
31 events total · avg depth 9.4 km · Wasatch Fault dominant
Foundation and soil engineering literature
Search peer-reviewed geotechnical literature for settlement predictions, bearing capacity data, pile performance studies, ground improvement effectiveness, and case histories in similar soil conditions.
Find published case studies on wick drain performance and vacuum consolidation for rapid settlement of soft marine clay in port construction projects.
Found 11 case studies. Best documented: Singapore Changi East reclamation (2003, Chu et al.) — 3.5m settlement in 12 months vs 18 months predicted. Key insight: vacuum + surcharge outperforms surcharge alone by 30-40% on consolidation rate. 2 newer studies from Vietnam and Thailand corroborate.
ToolRouter search_papers
ProjectYearSettlement
Singapore Changi East reclamation20033.5m in 12 months
Vietnam port reclamation20182.8m in 10 months
11 case studies found
Marine and offshore site conditions
Access tidal data, wave conditions, sea floor sediment information, and ocean current data for offshore and coastal geotechnical investigations. Essential for pile design, scour analysis, and foundation stability assessments.
Get tidal range, significant wave height, and current data for a site at 52°N 3°W in the Irish Sea for an offshore wind foundation investigation.
Irish Sea site data: Mean spring tidal range 4.8m. Significant wave height Hs = 3.2m (50-year return). Peak wave period Tp = 9.5s. Surface current: 0.8m/s (spring tides). Bottom current: 0.3m/s. Scour potential: moderate — recommend scour protection for monopile foundations.
ToolRouter get_tides
Mean spring tidal range
4.8m
Significant wave height (50-yr)
Hs = 3.2m, Tp = 9.5s
Surface current (spring)
0.8 m/s
Bottom current
0.3 m/s — scour protection recommended
Site investigation documentation
Generate boring log cross-sections, geologic profile diagrams, and foundation option comparison schematics for geotechnical reports and client presentations.
Generate a cross-section diagram showing soil stratigraphy between 3 boreholes: BH1, BH2, BH3 spaced 30m apart. Layers: 0-3m fill, 3-9m medium dense sand, 9-18m soft clay, below 18m dense gravel.
Soil cross-section rendered. 3 boreholes with correlated stratigraphy. Soft clay layer (9-18m) continuous across all 3 — flagged as primary settlement concern. Dense gravel bearing layer consistent at 18m depth. Recommended pile tip elevation labeled at -18m.
ToolRouter render_diagram
Fill (0–3m)
Heterogeneous fill — all boreholes
Medium dense sand (3–9m)
Consistent across site
Soft clay (9–18m)
Continuous — primary settlement concern flagged
Dense gravel (18m+)
Bearing layer — recommended pile tip elevation -18m
Geotechnical code and standards research
Research AASHTO, FHWA, OSHA, and ASCE requirements for foundation design, slope stability, excavation support, and ground improvement methods. Compile code summaries for geotechnical reports.
Summarize OSHA 1926 Subpart P requirements for excavation and trenching safety, including soil classification, sloping requirements, and shoring/shielding design standards.
OSHA 1926 Subpart P: Soil must be classified (Type A, B, C). Type C slopes: 1.5H:1V max. Sloping or shoring required for excavations >5 ft deep. Competent person must evaluate daily. Spoil piles ≥2 ft from excavation edge. Ladders required every 25 ft. Protective systems required for all >20 ft excavations regardless of soil type.
ToolRouter research
Soil classification
Type A, B, C — competent person must evaluate daily
Type C slope
1.5H:1V maximum — most conservative
Shoring required
All excavations >5 ft deep — sloping or shoring/shielding
Spoil pile
≥2 ft from excavation edge
Access/egress
Ladder required every 25 ft
Ready-to-use prompts
Earthquake history lookup
Search for all M5.0+ earthquakes in the New Madrid Seismic Zone since 1900. Include magnitude, depth, and ground effects. I need this for a seismic hazard assessment for a critical facility.
Liquefaction research
Find peer-reviewed papers on the Boulanger and Idriss (2014) CPT-based liquefaction triggering procedure — methodology, validation studies, and comparison with Youd et al. (2001) method.
Draw soil cross-section
Generate a site cross-section diagram for a retaining wall design: existing grade, retained soil (medium dense silty sand), retaining wall, drainage layer, and foundation on competent clay. Include water table level.
Coastal wave data
Get significant wave height, tidal range, and storm surge data for a proposed coastal infrastructure site at Cape Hatteras, NC. Include 100-year return period wave height estimate.
FHWA foundation design
Research FHWA geotechnical design guidance for drilled shaft foundations supporting highway bridge piers — bearing capacity methods, construction inspection requirements, and load test recommendations.
Recent local earthquakes
Show all earthquakes within 75 miles of Memphis, TN in the past year. Rank by magnitude and include depth, distance, and whether they are associated with the New Madrid Seismic Zone.
Ground improvement research
Find academic papers on dynamic compaction for densification of loose fill and collapsible soils — effective depth, crater depth per blow, and improvement verification methods.
Geotechnical engineer jobs
Find senior geotechnical engineer positions at engineering consulting firms specializing in transportation, waterfront, or energy infrastructure projects. Include both US and international opportunities.
Tools to power your best work
Earthquake MonitorLive & historical earthquake data
Deep ResearchAI research reports with citations
Diagram GeneratorRender Mermaid, PlantUML & more
Job SearchJobs & salary data worldwide
Ocean & TidesTides, waves, and ocean forecasts
165+ tools.
One conversation.
Everything geotechnical engineers need from AI, connected to the assistant you already use. No extra apps, no switching tabs.
Seismic site characterization
Compile seismic hazard data and geotechnical research to support ASCE 7 site class determination and design spectrum development.
Offshore foundation investigation planning
Gather environmental and site data to plan a marine geotechnical investigation.
Geotechnical report research package
Compile the literature and code references needed for a geotechnical investigation report.
Frequently Asked Questions
How detailed is the earthquake data from Earthquake Monitor?
Earthquake Monitor pulls from the USGS Earthquake Hazards Program, providing magnitude, depth, location, time, and fault attribution where available. It covers global events and includes historical data back to the early 1900s for significant events. Real-time data is typically available within minutes of detection.
Is Ocean Data useful for coastal geotechnical work, not just offshore?
Yes. Ocean & Tides provides tidal range, wave conditions, sea level, ocean currents, and marine alerts — all directly relevant to coastal foundation design, scour analysis, and waterfront structure assessments. Data comes from real station readings and model predictions for locations worldwide.
Can Diagram Generator produce geologic cross-sections?
Diagram Generator can produce schematic soil cross-sections and boring log correlation diagrams using supported diagram syntax. These are suitable for reports and presentations. Formal geologic map sections with survey-accurate coordinates require GIS or dedicated geological drafting software.
Does Academic Research index geotechnical conference papers, not just journals?
Academic Research searches databases that index conference proceedings from major geotechnical venues including ASCE Geo-Institute conferences, ISSMGE proceedings, and AASHTO publications where they have been indexed in Semantic Scholar or similar academic search engines.
Can Deep Research summarize OSHA excavation requirements for field use?
Yes. Deep Research is effective for producing clear summaries of OSHA 1926 Subpart P requirements, FHWA design guidance, and state-specific requirements. For field decision-making on excavation classifications and protective system design, always verify against the current official OSHA standard with a qualified competent person.
Give your AI superpowers.
Get started for free
Works in Chat, Cowork and Code