International Society of Explosives Engineers (ISEE) conferences are always a blast 😜! Looking forward to sharing case studies showing how orebody learning enables engineers to easily back-analyse all blasts to results to reduce costs, evaluate products, and increase productivity and energy efficiency.
#blasting#efficiency#analysis
Great to see the results of a project that we did through the LOP are now on line. it was a demonstration of how we could take an existing DFN are run it through our 3DPOF code to consider both conventional multibench scale kinematics but also include the roles of rock mass strength and pore pressure. Do you have a slope with lots of structure that result in non-daylighting wedges or other potential composite failure mechanisms? Let us tell you about how DFN-3DPOF can help you.
#openpit#slopestability ##structuralgeology#mining#geotechnicalengineeringWSP Mining
Project Update! 🚀
https://lnkd.in/gBCQkrQR
Developed and implemented by WSP/Golder, FracMan DFN-3DPOF was applied in an LOP-supported project for assessing inter-ramp and full slope scale stability in structurally influenced rock masses. Aimed at extending a previous DFN-based kinematic analysis of a structurally controlled slope, this project also included components of rock mass, variable joint strength, and pore pressure. Results and key outcomes are summarized in the webinar above and accessible at https://lnkd.in/gWej-7tW
Enjoy watching!
The ability to monitor large areas for slope stability and deformation is key for risk mitigation, especially in mining projects where safety is critical. A number of solutions for monitoring at different scales have emerged; how do stakeholders evaluate and combine these technologies for effective risk-mitigation actions?
Come join 3vG's Jon Leighton and GroundProbe's Antonio C. Rocha, MSc in a live webinar as they discuss the utilization of ground-based radar and satellite-based InSAR as complementary tools in a comprehensive geotechnical monitoring plan.
In this webinar, you will discover how to maximize the benefits of combining these two technologies. By merging satellite-based InSAR with ground-based radar, those involved will have the opportunity to utilize the advantages of both technologies in order to improve their monitoring choices.
Register now: https://lnkd.in/evdY86u3#3vgeomatics#groundprobe#oricadigitalsolutions#insar#radar#grounddeformation#deformationmonitoring#geotechnicalinstrumentation#webinar#registernow
Rate & BHP calculations, Automated PTA, Boundary Distances and Types, Automated Static MBALs, Decline Analysis: Keeping track of your Asset to Maximize the NPV.
The ability to monitor large areas for slope stability and deformation is key for risk mitigation, especially in mining projects where safety is critical. A number of solutions for monitoring at different scales have emerged; how do stakeholders evaluate and combine these technologies for effective risk-mitigation actions?
Come join 3vG's Jon Leighton and GroundProbe's Antonio C. Rocha, MSc in a live webinar as they discuss the utilization of ground-based radar and satellite-based InSAR as complementary tools in a comprehensive geotechnical monitoring plan.
In this webinar, you will discover how to maximize the benefits of combining these two technologies. By merging satellite-based InSAR with ground-based radar, those involved will have the opportunity to utilize the advantages of both technologies in order to improve their monitoring choices.
Register now: https://lnkd.in/evdY86u3#3vgeomatics#groundprobe#oricadigitalsolutions#insar#radar#grounddeformation#deformationmonitoring#geotechnicalinstrumentation#webinar#registernow
Recently Jonathan McKenna presented at the American Rock Mechanics Association Hydraulic Fracturing Seminar.
The topic was, “Applied Microseismic Monitoring.” The seminar covered real-time monitoring, geohazard avoidance, measurement of time-dependent stress shadow effects, and modeling of fractures and dynamic stress changes.
In the video, Successful Refracting in the Bakken is discussed.
...
#energy#houston#cleanenergy#bakken#refrac#networking
In this How-to Wednesday: HOW TO: Lateral Pile Analysis options in DeepFND - Static Loads VS Pushover Analysis
Unlock advanced geotechnical insights with DeepFND’s Lateral Pile Analysis, designed to elevate engineering precision in static and pushover analyses. DeepFND allows engineers to apply lateral load magnitudes at each pile head direction, generating accurate displacement, moment, and shear diagrams to visualize static load impacts effectively.
For a deeper examination, the pushover analysis option calculates the specific forces required to reach designated displacements, showcasing a thorough load-displacement relationship through PY response diagrams. This capability ensures precise load resistance evaluations, vital for assessing structural integrity under various conditions.
Ready to enhance your project outcomes? Explore the latest analysis techniques in DeepFND and gain immediate access to detailed analysis files from the site.
👉 Visit the site now and download the files to start refining your geotechnical workflows!
#DeepFND#DeepFoundations#GeotechnicalEngineering#DeepExcavation
🎥 Missed Our Webinar? Watch it completely FREE Now!
Learn how to cut through surface movement noise and uncover critical geotechnical insights.
What you'll gain:
✅ Key techniques to identify subsurface dangers.
✅ Why InSAR is only the beginning.
✅ Tools to stay ahead of geotechnical risks.
📍 Access the recording here: https://lnkd.in/eJgeMi6v
Empower your work with actionable insights—don’t miss this opportunity and get in touch! ☺️
#SkyGeo#GeotechnicalEngineering#InSAR#GeotechnicalRisk
Fly rocks in blasting also refer to the rocks or debris that are thrown or ejected during a blasting operation, often landing outside the designated blast area. Fly rocks can be a safety hazard and cause damage to surrounding structures, equipment, or the environment.
Causes of fly rocks:
Inadequate blast design or planning
Insufficient stemming or plugging
Incorrect explosive selection or loading
Poor rock fragmentation
Inadequate safety measures
Effects of fly rocks:
Safety risks to personnel and nearby communities
Damage to surrounding structures, equipment, or vehicles
Environmental impact, such as destruction of habitats or pollution
Increased cleanup and disposal costs
Potential legal and regulatory issues
Prevention and control measures:
Conduct thorough blast design and planning
Use appropriate stemming and plugging materials
Select suitable explosives and loading techniques
Implement robust safety protocols and monitoring
Regularly inspect and maintain equipment and blasting areas
Consider using fly rock containment measures, such as blast mats or fly rock catchers
Always note, safety and environmental responsibility are crucial in blasting operations.
In the most basic terms, "flyrock" in blasting refers to fragments of rock propelled, ejected or thrown from the blast bench beyond the designated clearance zone. Flyrock poses potential dangers to personnel, equipment, and nearby structures.
Flyrock can occur when the explosive force of a blast exceeds the rock mass’s ability to contain it. This can occur due to various factors, such as inadequate blast design, incorrect loading or stemming, excessive explosive charges, or unfavorable geotechnical conditions leading to insufficient confinement of the blast energy.
In our line of work at ERG Industrial we frequently work with sites to reduce flyrock - have a look at one of the case studies, where we focused on reducing flyrock by improving energy retention: https://lnkd.in/dxiKjJAX
