In this episode, I talk with Deborah Tusingwire, founder of ORESOIL, about how geotechnical engineering content creation has shaped her career, the challenges of sharing technical knowledge, and why engineers should use it to grow their influence and impact.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Asked Deborah:

Why is geotechnical engineering content creation important, and how has it shaped your career and influence in the industry?
Considering the value of social media over traditional conference papers, how has this shift affected your approach to professional visibility?
Who are the key professionals involved in building a house, and what challenges have you faced in raising awareness about the role of geotechnical engineers in this process?
What strategies have you found effective in overcoming the challenges associated with content creation in civil engineering?
Which platforms or formats have proven most successful for your content related to geotechnical investigations, soil testing, mineral exploration, and geophysical surveys, and why?
How do you manage the demands of running a firm while also maintaining an active social media presence?
What final piece of advice would you offer to geotechnical engineers and students who feel overwhelmed by the idea of creating content?

Here Are Some of the Key Points Discussed About Geotechnical Engineering Content Creation and Why Engineers MUST Share Their Expertise Online:


Geotechnical engineering content creation plays a vital role in educating the public, policymakers, and industry professionals on soil and structural integrity. Sharing knowledge through digital platforms allows engineers to advance their careers, increase visibility, and influence policy, especially in areas where geotechnical awareness remains low.
Social media bridges the gap between academic research and public understanding, making geotechnical engineering more accessible. By leveraging content creation, engineers can showcase their work beyond conferences and publications, simplifying technical topics and demonstrating the profession’s impact on economic development and infrastructure safety.
Geotechnical investigations, soil testing, and foundation stability are essential for construction, yet the role of geotechnical engineers is often overlooked. Raising awareness about these critical processes requires clear and engaging communication to help clients and stakeholders understand their importance.
Video content on platforms like YouTube and Instagram strengthens trust and engagement, allowing audiences to connect with real professionals. Treating social media as both an educational tool and a business strategy expands industry influence while addressing challenges such as limited resources.
Short-form video content, including YouTube Shorts, Instagram Reels, and TikTok videos, enhances credibility and simplifies technical concepts in an accessible way. These formats demonstrate real-world applications and create valuable connections within the industry.
Maintaining consistency and enthusiasm transforms geotechnical engineering content creation from an obligation into a natural part of business operations. Viewing social media as a tool for education and industry growth keeps professionals motivated and encourages consistent engagement.
Taking the first step in content creation for geotechnical engineering builds momentum, credibility, and industry influence over time. Dedication and perseverance turn even the most challenging tasks into valuable opportunities, while an engaged audience remains appreciative of shared expertise.

More Details in This Episode…
About Deborah Tusingwire

In this episode, I talk with Simon Boone, P.G., director of engineering at GeoStabilization International®, about the power of geohazard mitigation to safeguard communities, build a resilient future, and create safer, stronger infrastructure through proactive planning and innovative solutions.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Asked Simon :

What are your thoughts on the rising frequency and intensity of natural disasters like hurricanes?
Why is it crucial for companies and municipalities to prioritize proactive geohazard mitigation?
What key factors should be considered when designing a mitigation strategy for hurricane-prone areas?
Could you talk about a geohazard mitigation project you've worked on and highlight its importance and the benefits of proactive planning?
What are common challenges faced by geotechnical engineers when implementing mitigation strategies?
How do mitigation strategies vary among different types of natural disasters?
What long-term benefits do investments in hurricane-specific mitigation measures bring?
What final piece of advice would you give to geotechnical engineers and geologists on developing more resilient infrastructure to effectively withstand the impacts of natural disasters?

Here Are Some of the Key Points Discussed About Exciting Innovations in Geohazard Mitigation You Need to Know:


The increasing frequency and intensity of natural disasters highlight the critical importance of disaster preparedness. Adequate planning is essential to manage these events effectively, ensuring that public agencies and private entities are not overwhelmed and can respond to emergencies in a timely manner.
Proactive geohazard mitigation is essential for maintaining infrastructure reliability and public safety. By addressing environmental and geological risks upfront, companies and municipalities can prevent potential failures, reduce financial losses, and contribute positively to long-term societal and economic stability.
Designing an effective mitigation strategy requires a thorough understanding of environmental and geological risks, as well as the adaptability to address site-specific challenges. Resource efficiency, collaboration among stakeholders, and a focus on both immediate and long-term needs are critical components of a successful approach.
Geohazard mitigation projects, such as site investigations for water treatment plants, showcase the importance of meticulous planning and risk assessment. Thorough geotechnical analysis helps identify potential risks early, ensuring project success and preventing future complications. These efforts emphasize the value of proactive geotechnical engineering in infrastructure development.
Geotechnical engineers often face challenges such as collecting accurate data in hazardous or unstable conditions. This work demands adaptability, resourcefulness, and sound decision-making, as they frequently have to make critical decisions with limited information while ensuring public safety and infrastructure stability.
Mitigation strategies must be tailored to address the specific risks of each type of natural disaster. For example, hurricanes require strategies focused on wind and water resistance, while earthquakes demand seismic retrofitting and stability measures. Each strategy involves unique challenges that require specialized approaches.
Investments in hurricane-specific mitigation measures provide long-term benefits by reducing financial and personal losses and enhancing societal resilience. Proactive planning secures the longevity of infrastructure, ensuring communities can recover more quickly and sustainably from catastrophic events.

In this episode, I talk with Shawn Lapain, P.Eng, senior geotechnical engineer at AECOM, about the groundbreaking innovations in pavement design and rehabilitation that keep roads resilient in the harshest environments, from scorching deserts to icy tundras.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Asked Shawn:

What challenges do you face when designing and rehabilitating pavements in varying climates?
How does client service shape your approach to project management and engineering design?
How do you bring together teams from different disciplines to manage complex infrastructure projects effectively?
What recent advancements in pavement design and engineering have you observed, and how are they transforming the industry?
How do you ensure the success of pavement rehabilitation projects when dealing with unknown subgrade conditions?
What is the role of falling weight deflectometer (FWD) testing in pavement investigations, and how do you apply the data?
How has working across Canada and the U.S. influenced your approach to geotechnical engineering?
What is one key leadership lesson from your career that continues to shape how you lead today?
What final piece of advice would you give to engineers starting their careers in geotechnical and pavement design and engineering?

Here Are Some of the Key Points Discussed About Tips to Advance Pavement Design With Outstanding Results:


Designing and rehabilitating pavements in diverse climates requires addressing unique challenges such as frost-susceptible clay, extreme temperature swings, and complex soil conditions. Climate change and environmental considerations also demand sustainable solutions that respect cultural and ecological values.
Client service in engineering projects emphasizes tailoring communication to the client’s understanding, supporting asset management, and aligning technical solutions with expectations and budgets. Clear communication and delivering value help build strong, long-term client relationships.
Leading multidisciplinary teams on complex projects depends on clear and proactive communication, encouraging teamwork, and addressing issues early. Viewing engineering as a service-oriented field strengthens relationships and ensures efficient project execution.
Advancements in pavement design and engineering include using ground-penetrating radar (GPR) for efficient data collection, falling weight deflectometer (FWD) testing for load assessments, and low-carbon concrete for sustainable construction. Drone technology further improves surveying capabilities in challenging areas while minimizing disruptions.
Ensuring the success of pavement rehabilitation projects involves robust risk management strategies, optimizing designs, and budgeting for contingencies. Acknowledging unknowns between data points and planning for surprises protects both the client and project outcomes.
Falling weight deflectometer (FWD) testing enhances pavement investigations by complementing borehole data, assessing load transfer efficiency, and evaluating subgrade strength. This method provides valuable insights for asset management and design optimization, particularly in high-traffic areas and airfields.
Working across Canada and the U.S. shapes engineering approaches by emphasizing the need for site-specific adaptations, thorough research, and hands-on involvement. Drawing on diverse experiences improves understanding of local conditions and enables better-informed design recommendations.
Effective leadership focuses on listening to team members and recognizing the value of ideas from all experience levels. Mentoring, teamwork, and a collaborative mindset are essential for ...

In this episode, I talk with Miranda Slomkowski, EIT, regional manager at Menard USA, about the game-changing innovations in design, materials, and construction techniques showcased at the Geo-Structures 2024 conference and their transformative impact on the future of geotechnical engineering.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Ask Miranda:

What innovative techniques and technologies from the conference could transform retaining structures and advance geotechnical engineering?
What were the most memorable topics or presentations from the event?
How do you think the conference discussions will shape the future of ERS design and construction?
How does Menard USA support sustainability and efficiency in line with the advancements discussed at the conference?
How can collaboration between engineers, contractors, and agencies drive innovation in ERS, and how could it be improved?
How do industry events like Geostructures 2024 help engineers stay updated on new technologies and changing regulations, and why should they attend?
What final piece of advice would you give geotechnical engineers to use innovative techniques and technologies to advance their careers and the industry?

Here Are Some of the Key Points Discussed About the Breakthrough Building Techniques Revealed at the Geo-Structures Conference:


The Geostructures Conference highlights innovative techniques and creative problem-solving, such as those applied in the I-95 bridge collapse, which demonstrate how challenges in retaining structures can be addressed effectively. These advancements show the potential to improve infrastructure and drive progress in geotechnical engineering.
Memorable topics include ground improvement methods, lessons learned from real-world projects, and the importance of collaboration among stakeholders. Presentations, such as the rapid response to the I-95 bridge collapse, stand out for their ingenuity and practical impact on the industry.
Discussions at the conference emphasize collaboration among consultants, contractors, and agencies, strengthening relationships and leading to innovation in ERS design and construction. These conversations highlight shared experiences and lessons that enhance future project outcomes.
Menard USA emphasizes sustainable ground improvement techniques, offering efficient alternatives to traditional piling while reducing environmental impact. Their commitment to advancing technology and engaging with industry trends aligns with the priorities showcased at the conference.
Collaboration strengthens trust and relationships, allowing teams to address challenges together and achieve innovative solutions. This can improve further with open communication, shared accountability, and active participation in technical committees to advance industry goals.
Events like Geostructures 2024 provide engineers with access to the latest technologies, insights on evolving regulations, and opportunities to learn from real-world successes and challenges. Attending allows professionals to grow their expertise, build meaningful networks, and bring valuable ideas back to their organizations.
Engineers should participate in industry events, engage with technical committees, and actively contribute to discussions and initiatives. Asking questions, sharing ideas, and building connections help advance careers while contributing to meaningful improvements in the field.

More Details in This Episode…
About Miranda Slomkowski, EIT
Miranda Slomkowski, regional manager, Menard USA, BS civil engineering & technology – University of Pittsburgh at Johnstown

With over 14 years of experience in the geotechnical industry,...

In this episode, I talk with Sonia Sorabella Swift, P.E., director of engineering at Menard USA, about how rigid inclusions and piles enhance safety and durability in modern construction. We break down their function and impact on buildings, bridges, and infrastructure.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Asked Sonia:

Can you explain what rigid inclusions are, how they’re different from piles, and some common misconceptions about them?
What are the main differences between rigid inclusions and piles, and how do those differences influence their use?
Can you describe the concept of the spectrum of applicability for rigid inclusions and how it applies to different projects?
How can a project team decide where their project falls on the spectrum of applicability for rigid inclusions?
What are the benefits and challenges of using a load transfer platform with rigid inclusions on projects with high bearing capacity or varying soil conditions?
What strategies have you found helpful for promoting strong teamwork and communication among all the parties involved in a project?
What final piece of advice would you give to engineers who want to deepen their knowledge of foundation solutions, especially rigid inclusions and piles?

Here Are Some of the Key Points Discussed About How Rigid Inclusions Make Modern Construction Safer:


Rigid inclusions are often mistaken for piles because both reduce settlement and enhance bearing capacity, but they differ in design and behavior. Unlike piles, rigid inclusions share load with the surrounding soil, requiring unique design considerations and advanced modeling tools to optimize performance.
Rigid inclusions are separated from the structure by a load transfer platform, allowing for the use of spread footings and slabs on grade, unlike piles that connect directly to the superstructure. This approach typically reduces costs and accommodates greater settlement tolerances, ranging from one to two inches, compared to the minimal settlement usually required for piles.
The spectrum of applicability for rigid inclusions spans from low-risk projects with good soils and low loads to high-risk projects with soft soils and high loads. Placement on the spectrum involves teamwork among the project team to evaluate risks, apply appropriate design conservatism, and adjust methodologies for higher-risk conditions.
Determining placement on the spectrum for rigid inclusions is a qualitative process that examines factors like soil conditions, high bearing pressures, seismic loading, and settlement tolerances. Collaboration with the design team is essential to understanding these triggers and predicting how the project will perform under field conditions.
Load transfer platforms effectively distribute loads and provide flexibility in rigid inclusion elevation, but their thickness can lead to increased settlement in soft soils. Addressing these challenges may require adjustments such as thickening slabs, adding reinforcement, or revising the design approach to maintain stability and performance.
Clear communication among project team members addresses key concerns like material costs, accessibility, and performance expectations early in the process. Short, focused discussions uncover potential issues, prevent surprises during construction, and contribute to smoother project execution.
Engineers advance their expertise by asking questions and remaining open to understanding system behavior and optimization. Rigid inclusions offer cost-effective, environmentally friendly design opportunities that utilize good soil conditions to create leaner, more efficient solutions.

More Details in This Episode…

In this episode, I talk with Rajat Gangrade, PhD, PE, technical advisor in geotech and tunneling at HNTB, about tackling spatial uncertainty in geotechnical engineering. Discover how advanced modeling, data visualization, and cutting-edge tools are transforming risk assessment and decision-making.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Ask Rajat:

How do you approach measuring spatial uncertainty and variability in geotechnical projects, and why is it crucial for tunnel design?
What are your thoughts on the challenges of horizontal drilling compared to vertical drilling?
How does spatial variability affect risk and decision-making in large infrastructure projects?
What strategies work best for explaining project uncertainty to different stakeholders?
Are engineers required to use probabilistic methods in geotechnical reports, or is it optional?
How are automation and digital tools changing the geotechnical and tunneling industries?
Are digital twins being used in tunneling projects, or is it still a developing trend?
How does receiving the UCA Young Member Award influence your role as a mentor in the tunneling industry?
What advice would you give to engineers aiming to grow in geotechnical and tunneling fields and keep up with industry changes?

Here Are Some of the Key Points Discussed About Innovative Solutions for Spatial Uncertainty in Tunnel Construction:


Quantifying spatial uncertainty is essential for understanding how ground conditions vary and assessing the risks they pose to tunnels. This process supports informed design and excavation strategies, helping to minimize financial and technical risks throughout a project’s lifespan.
Accurate representation of ground conditions is critical for both horizontal and vertical drilling, as any misrepresentation can lead to costly delays or failures. Horizontal drilling presents unique challenges due to variations in soil and rock conditions along the alignment, requiring robust probabilistic methods to manage risks effectively.
Spatial variability directly impacts the uncertainty of ground conditions, influencing both risk assessment and decision-making. Probabilistic approaches allow engineers to quantify this uncertainty and reduce unexpected outcomes during project execution.
Using probabilities to provide confidence levels and leveraging visualizations to simplify complex data are effective ways to explain uncertainty. These strategies help stakeholders clearly understand risks and support informed decision-making without relying on lengthy or overly technical reports.
Probabilistic methods are not currently mandated in geotechnical reports but offer significant benefits. Incorporating these approaches helps engineers quantify uncertainties, improving risk assessment and decision-making across projects.
Automation and digital tools streamline repetitive tasks and enable more efficient workflows in geotechnical and tunneling industries. Engineers with technical expertise and coding skills play a crucial role in optimizing these advancements to address industry challenges effectively.
Digital twins are increasingly being utilized in tunneling projects. Contractors use them to monitor project progress, while owners rely on them for lifecycle management and future maintenance planning, enhancing overall efficiency and project insights.
The UCA Young Member Award highlights the value of industry collaboration and professional support in tunneling. This recognition encourages engagement with emerging engineers, motivating them to connect with peers, attend conferences, and find solutions to industry challenges.

In this episode, I talk with Kow Eshun, PE, PMP, vice president at Civil & Environmental Consultants, Inc., about how being a successful leader involves balancing the technical demands of geotechnical engineering with leadership and project management responsibilities to achieve successful project outcomes.

***The video version of this episode can be viewed here.***
Engineering Quotes:


Here Are Some of the Questions We Asked Kow:

What qualities make a successful leader in the geotechnical engineering field?
How do you balance the technical responsibilities of geotechnical engineering with your leadership role?
What are the key challenges geotechnical engineers face when collaborating with project managers?
What strategies do you use to ensure both technical quality and project timelines are maintained on large-scale projects?
How do you navigate complex geotechnical issues while keeping stakeholders and project timelines in mind?
What role does innovation play in geotechnical engineering today, and how can we encourage teams to embrace new solutions?
What final piece of advice would you give to engineers stepping into leadership roles, especially those managing both technical and project management tasks?

Here Are Some of the Key Points Discussed About the Top Qualities of a Successful Leader in Geotechnical Engineering:


A great leader in geotechnical engineering demonstrates empathy, understands cultural differences, and actively supports their team. Effective leadership involves mentoring others to ensure continuity and growth beyond the leader's tenure.
Gaining leadership experience outside of traditional engineering roles is highly beneficial, as management skills are transferable across industries. Engineers who broaden their experiences beyond technical work are better prepared to lead effectively when the opportunity arises.
Effective collaboration between geotechnical engineers and project managers relies heavily on clear and consistent communication. Establishing communication protocols, setting regular check-ins, and defining shared goals from the outset helps prevent misunderstandings and ensures project alignment.
Advances in technology, including AI and 3D modeling, transform geotechnical engineering by improving efficiency and enhancing decision-making. Embracing these innovations is essential for staying at the forefront of the industry and delivering better project outcomes.
Embracing new technologies, like AI and 3D modeling, is crucial for improving geotechnical engineering efficiency and decision-making. By leveraging advanced tools, engineers solve complex problems more effectively and make better-informed recommendations.
Encouraging teams to embrace advances in technology, including AI and 3D modeling, is essential for transforming geotechnical engineering, improving efficiency, and enhancing decision-making. Staying at the forefront of the industry requires continuous innovation and adaptation.
For engineers stepping into leadership roles, focusing on mentoring and actively supporting the team while balancing technical responsibilities is key. Effective leadership empowers the next generation to take on leadership roles with confidence.

More Details in This Episode…
About Kow Eshun, PE, PMP
Kow Eshun is the vice president at Civil & Environmental Consultants, Inc., with over nine years of experience in leadership roles at the company. He is an accomplished engineer and project manager, specializing in civil, construction, and logistics industries. Kow holds a Master of Science in civil engineering with a focus on geotechnical engineering from The University of Akron, where he also served as the president of the National Society of Black Engineers (NSBE) and the finan...

In this episode, I talk with Izabelle McGarvey, EIT, a design engineer at Menard USA, on how innovative sustainability is reshaping geotechnical engineering to meet the challenges of climate change and resource scarcity in foundational projects like tunnels and infrastructure.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Asked Izabelle:

How did Menard’s focus on sustainability begin, and how has the program evolved over time?
Why is sustainability essential for the future of geotechnical engineering?
How does Menard reduce carbon emissions, and what innovative methods are you using to lower CO2 in projects?
What role does ground improvement play in reducing carbon emissions, and how does it compare to traditional methods?
What are the main challenges you face in promoting sustainability while balancing cost and practicality?
What steps can engineers and the industry take to contribute more effectively to environmental sustainability?
What final piece of advice would you offer engineers looking to make a meaningful impact on sustainability in geotechnical engineering?

Here Are Some of the Key Points Discussed About How Innovative Sustainability Is Remarkably Changing Geotech:


Menard’s focus on sustainability stems from the environmental goals set by its parent company, which drives a structured approach to reducing carbon emissions across the organization. Menard USA continuously improves emission tracking and operational efficiency, establishing regional environmental ambassadors to expand sustainability initiatives across various locations.
Sustainability supports the long-term success of all industries, ensuring practices that can be maintained indefinitely. In geotechnical engineering, where construction contributes significantly to carbon emissions, there is substantial opportunity for innovation to reduce a project’s environmental impact.
Menard’s carbon reduction strategy includes ambitious goals to lower both direct and indirect emissions by 2030, with a focus on fuel use and material sourcing. By categorizing emissions, Menard identifies concrete as a key area for reduction and employs proprietary installation techniques to effectively lower CO2
Ground improvement methods, including innovative installation techniques for rigid inclusions, reduce material usage and carbon footprints while effectively strengthening geotechnical capacity. Alternative solutions such as aggregate piers and dynamic compaction offer more sustainable, lower-carbon options compared to traditional, concrete-heavy methods.
A primary challenge in promoting sustainability involves shifting the perception that green solutions are costly. Often, reducing material usage can lead to both cost and carbon savings, and by applying a “reduce, reuse, recycle” approach, organizations can achieve effective, sustainable results with a practical focus.
Engineers make meaningful impacts by taking small, proactive steps, such as initiating sustainability conversations, tracking emissions, and identifying areas for improvement. These actions, along with mindful consumption practices, drive change and help guide teams toward achievable sustainability goals.
Early field experience proves invaluable for engineers, enhancing practical judgment and communication with field teams. This hands-on exposure builds a solid foundation for problem-solving and resilience, equipping engineers to implement sustainable practices effectively in their careers.

More Details in This Episode…
About Izabelle McGarvey, EIT
Izzy started in the summer of 2019 as an intern with Menard before joining full time as a project engineer in 2020. Currently,

In this episode, I dive into how embedded temperature sensors in concrete are revolutionizing the way engineers address climate challenges, enabling early issue detection and fortifying infrastructure to withstand extreme weather.

***The video version of this episode can be viewed here.***
Engineering Quotes:

Here Are Some of the Key Points Discussed About How to Tackle Climate Challenges With Embedded Temperature Sensors:



Temperature fluctuations cause construction materials like concrete, steel, and asphalt to expand and contract, weakening infrastructure over time and leading to cracks, deterioration, or structural failures. This issue worsens with changes in soil stability, especially in areas affected by permafrost and climate change.
Temperature sensors play a crucial role in maintaining infrastructure health by continuously monitoring materials and soil, providing real-time data that helps engineers identify potential issues early. This enables timely repairs, reduces costs, and extends the lifespan of structures like bridges, tunnels, and roads.
In a real-world application, temperature sensors on the San Francisco-Oakland Bay Bridge monitor the foundation, allowing engineers to detect design weaknesses early and make adjustments, saving millions of dollars. These sensors also optimize maintenance timing, reducing costs and minimizing disruptions by scheduling repairs during low-usage periods.
Temperature sensors revolutionize infrastructure resilience by providing critical data that prevents failures, optimizes maintenance, and extends the lifespan of structures. With climate change increasing temperature fluctuations, these sensors are essential for creating more efficient, sustainable, and resilient infrastructure.

More Details in This Episode…
About the Host: Jared M. Green, P.E., BC.GE, F.ASCE
Jared, originally from southwest Philadelphia, Pennsylvania, graduated from Syracuse University’s College of Engineering in 2001 with a B.S. in Civil Engineering. He later went on to attain his M.S. in Civil Engineering (Geotechnical Focus) from the University of Illinois, Urbana-Campaign, in 2002. In 2003, he began working in the New York City office of Langan. He has since become a principal / vice president and is one of the owners of this international land development engineering consulting firm. After 15 years at Langan, Jared moved to the Philadelphia office and is one of the geotechnical practice leaders in that office.

Jared is a consultant and team leader who also enjoys mentoring young engineers and first-generation college students. He has been instrumental in increasing the number of pre-college students who are interested in STEAM majors and fields. He strives to make complex engineering topics relatable and understandable to people new to the field and to people who are completely unfamiliar with engineering. Jared and his family currently reside in Flemington, New Jersey. He and his wife have three energetic, inquisitive, and awesome children. You can connect with Jared here.
Sources/References:
Concrete Temperature Sensors
San Francisco-Oakland Bay Bridge
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In this episode, I talk with Michael Reader, CEO, and principal geotechnical engineer at Group Delta Consultants, about overcoming engineering challenges in billion-dollar projects, from unexpected surprises to managing budgets and navigating regulations on California’s most complex infrastructure developments.
Engineering Quotes:



Here Are Some of the Questions We Ask Michael:

How does your independent approach set you apart from larger firms that have grown through acquisitions?
What unique challenges do you face when working on multi-billion-dollar geotechnical projects, and how do you manage them?
What leadership strategies have helped you overcome challenges in complex projects?
How important is collaboration in the success of managing large-scale geotechnical projects?
What challenges has your team faced on a major project, and how did you overcome them?
What are the advantages of staying independent, and how has that helped your clients and your company?
What advice would you give to geotechnical engineers looking to lead large projects or firms like yours?

Here Are Some of the Key Points Discussed About How to Overcome Engineering Challenges in Billion-Dollar Projects:


Independent firms excel by taking a hands-on approach, allowing teams to handle everything from simple tasks to highly complex challenges. This adaptability helps them stay more responsive and closely involved with clients, unlike larger firms that often rely on more rigid structures.
Multi-billion-dollar projects come with tight deadlines and intricate technical demands. These challenges are effectively managed by dedicated teams focused on quickly solving problems and thoroughly addressing all technical aspects.
Successful leadership starts with hiring passionate and adaptable people who are eager to get hands-on with every project. The best results come from teams that are dynamic, problem-solving learners who understand projects deeply and tackle challenges in real-time.
Collaboration is essential for the success of large projects. Teams that work together solve problems more efficiently, producing better results because every member contributes to finding the best solution.
Complex projects like SoFi Stadium come with major challenges, including tight deadlines and technical hurdles like seismic design and deep excavations. These obstacles are overcome through commitment, teamwork, and technical expertise to ensure the project is completed successfully.
Independence gives firms the flexibility to be more agile, delivering faster and more personalized solutions to clients. This ability to adapt quickly is a huge advantage when managing large, complex projects.
Engineers should seek out companies that work on a variety of challenging projects where they can get involved at every level. Avoiding repetitive tasks and building a team of passionate, dynamic learners leads to better problem-solving and greater project success.

More Details in This Episode…
About Michael Reader:
Michael Reader is the CEO and principal geotechnical engineer at Group Delta Consultants, where he has been instrumental in leading the firm to become a market leader in geotechnical engineering, particularly in California's transportation design/build sector. With over 26 years of experience, Michael has overseen numerous high-profile projects, including the LAX Automated People Mover, RAMS Stadium at Hollywood Park, and major infrastructure developments like the 405 Freeway and the Gerald Desmond Bridge.

Michael’s expertise extends across a diverse range of geotechnical projects, including educational facilities, hospitals, mid-rise structures, and seismic analyses. His leadership has helped position Group Delta as one of the fastest-gr...

In this episode, we talk with Eddie Chiarelli, vice president at New York Concrete Corp. & Strata Industries Corp, about tackling mega engineering projects like the Gateway Tunnel. Discover how innovative strategies, strong teamwork, and a focus on how sustainability can help overcome the challenges of large-scale construction.
Engineering Quotes:


Here Are Some of the Questions We Asked Eddie:

As a key member of the NYCC team working on Phase 3 of the Gateway Tunnel project, which has been compared to major feats like the Hoover Dam and Golden Gate Bridge, what makes this phase both challenging and exciting?
How do you plan to speed up the schedule of the Gateway Tunnel project, and what innovative geotechnical solutions will your team use to accomplish this?
What unique challenges do you encounter when working on large-scale construction projects in a crowded city like New York?


What are the key factors that lead to the successful completion of a high-rise building project?
As sustainability becomes increasingly important in construction, how do you incorporate sustainable practices into your projects?
How important are teamwork and communication among stakeholders, especially geotechnical engineers, in your large construction projects?
What final piece of advice can you share with geotechnical engineers to help them succeed and make a positive impact in their careers?

Here Are Some of the Key Points Discussed About How to Overcome Challenges in Mega-Engineering Projects:


The Gateway Tunnel project is a significant engineering challenge due to its location in New York City, involving numerous stakeholders and complex technical conditions. The excavation through soft clays and hard rock, combined with the task of supporting an active elevated park, adds layers of complexity, making this phase both difficult and exciting.
To expedite the schedule of the Gateway Tunnel project, the steel beams were replaced with concrete to reduce lead times and switched to larger diameter secant piles to minimize the number of piles required. These innovations, along with other time-saving strategies, helped streamline the project and cut costs effectively.
In large-scale construction projects in New York, one of the biggest challenges is securing agency approvals, managing relationships with neighbors, and navigating the city’s traffic logistics. Successfully handling these factors is crucial to keeping the project on track and avoiding costly delays.
Key factors for the successful completion of high-rise building projects include effective planning, solid communication among all stakeholders, and a clear understanding of the technical challenges. Additionally, addressing site-specific constraints such as traffic and neighboring structures is essential to keeping the project moving smoothly.
Engineers can reduce environmental impact by recycling concrete and steel, reusing excavated soil, and using low-emission or electric equipment. Investing in new technologies and sourcing materials locally also boosts project efficiency and supports sustainability. Embracing these practices leads to more responsible engineering overall.
Teamwork and communication are crucial in large construction projects. Good collaboration leads to faster schedules, fewer errors, and higher morale, while poor communication can result in delays, increased costs, and lower project success rates. Having a well-connected team ensures the project runs smoothly and efficiently.
Geotechnical engineers should gain hands-on field experience, as it helps in understanding how projects are built and enhances problem-solving skills. Continually learning new techniques, questioning traditional methods, and thinking critically will help you pivot and add value throughout your...

Digital twin technology is revolutionizing industries by creating real-time virtual replicas of complex systems. These digital models provide valuable insights, helping businesses optimize performance, predict issues, and streamline operations. With recent advancements, the potential of digital twins is rapidly expanding, making them a key driver of innovation across various sectors.

Getting involved in professional services can be a game-changer for your career. It opens the door to exciting new opportunities, helps you sharpen your skills, and boosts your professional reputation. By engaging with these activities, you build valuable connections and position yourself for long-term success in your field.

Struggling with the geotechnical engineering talent gap? Uncover game-changing solutions that can help you stay ahead and drive the industry's future forward.

In this episode, we talk with Kirsten Wilde Grant, P.E., a project engineer in Schnabel Engineering's Geostructural group, about the challenges and intricacies of bottom-up retaining wall construction, and emerging trends and technologies shaping the future of geotechnical engineering.
Engineering Quotes:



Here Are Some of the Questions We Ask Kristin:

Can you explain bottom-up retaining wall construction and discuss some common challenges engineers encounter with this method?
Can you give an example of why we would use a bottom-up retaining wall construction method?
How important is it to include flexibility in the design of retaining walls and other geostructural projects?
How can engineers use their willingness to put in effort and try new things to their advantage?
How has your experience with field work impacted your engineering practice and helped you become a better engineer?
How can we help students and early career engineers learn about the different specializations in geotechnical engineering and find their niche?
How do different types of geotechnical engineers collaborate on large projects?
What final piece of advice would you give to engineers aiming to make a significant impact in geotechnical engineering?

Here Are Some of the Key Points Discussed About Mastering The Intricacies Of Building A Superior Bottom-Up Retaining Wall:


Bottom-up retaining walls, a type of geoenvironmental containment system like soldier pile and lagging, are used when other solutions, such as MSE walls, aren't suitable due to site conditions or stability issues. Key challenges include complex tieback installation and managing settlement behind the wall, requiring careful design and planning.
A bottom-up retaining wall is used in areas with deep-seated failure zones, like slick and sited red bed material, where other methods like MSE walls would fail due to historic instabilities. This method stabilizes the site by addressing global stability and preventing long-term failure.
Including flexibility in the design of retaining walls and geoenvironmental containment systems is crucial, as unforeseen issues like unexpected soil conditions or alignment changes can arise. Building in resilience helps manage these surprises and ensures the project can adapt and stay on track.
Engineers can use their willingness to put in effort and try new things to their advantage by embracing challenges and learning from diverse experiences. This adaptability often leads to greater growth and success in their roles.
Field work impacts engineering practice by offering a deeper understanding of soil behavior and constructability beyond theoretical knowledge. It also improves communication and problem-solving skills with contractors, resulting in more effective project execution.
Professionals can help students and early career engineers explore different geotechnical specializations by offering internships, giving university talks, and sharing their own experiences. This exposure helps them discover their interests and find the right career path.
Different types of geotechnical engineers collaborate on large projects by sharing expertise through geotechnical reports and working closely with local specialists. This teamwork ensures a comprehensive understanding of site conditions and leads to more effective and accurate solutions.
Engineers aiming to make a significant impact should embrace diverse challenges, gain broad experiences, and connect with colleagues. This approach not only expands their knowledge but also opens up more opportunities for growth and impact.

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About the Guest: Kirsten Wilde Grant, P.E.
Kirsten Wilde Grant is a Project Engineer in Schnabel Engineering's Geos...

In this episode, I discuss the best Master's programs in geotechnical engineering worldwide. From earthquake-resistant designs in Japan to sustainable projects in the Netherlands, I highlight the top Master's program options for advancing your career. Whether you're a student or a pro, join me for an exciting look at global opportunities in geotechnical engineering.

***The video version of this episode can be viewed here.***


Here Are Some of the Key Points Discussed About Choosing the Best Master's Program in Geotechnical Engineering:


Look at top U.S. schools like UC Berkeley and Georgia Tech for cutting-edge geotechnical engineering programs and research opportunities.
Consider UK institutions like Imperial College London for shorter Master's programs, but be aware of high living costs and visa rules.
Australia's UNSW offers sustainability focus and post-study work, despite high expenses.
Canada's UBC and U of Alberta offer quality education with lower fees, but be prepared for cold weather and program competition.
Ireland's Trinity College Dublin focuses on innovative engineering, but living costs can be high.
Japan's Kyoto U and U of Tokyo excel in earthquake resistance, but language and cultural adjustment may be needed.
China's Shanghai U and China U of Mining blend tradition and modernity, with visa processes as a challenge.
Netherlands' Delft U and Utrecht U lead in water management, but living costs are high.
Switzerland's ETH Zurich offers rigorous standards, but costs are among the world's highest.
Singapore's NTU and NUS focus on urban resilience, but competition and living costs can be high.
Africa's UCT and U of Lagos address local challenges in water management, with funding limitations.
Latin American universities like U of São Paulo offer practical geotechnical applications, but conditions vary.
When choosing, prioritize academic quality, practical experiences, support for international students, costs, and post-grad opportunities.
Stay updated on costs and visa rules by checking university and government websites for current information.

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About the Host: Jared M. Green, P.E., BC.GE, F.ASCE
Jared, originally from southwest Philadelphia, Pennsylvania, graduated from Syracuse University’s College of Engineering in 2001 with a B.S. in Civil Engineering. He later went on to attain his M.S. in Civil Engineering (Geotechnical Focus) from the University of Illinois, Urbana-Campaign, in 2002. In 2003, he began working in the New York City office of Langan. He has since become a Principal / Vice President and is one of the owners of this international land development engineering consulting firm. After 15 years at Langan, Jared moved to the Philadelphia office and is one of the geotechnical practice leaders in that office.

Jared is a consultant and team leader who also enjoys mentoring young engineers and first-generation college students. He has been instrumental in increasing the number of pre-college students who are interested in STEAM majors and fields. He strives to make complex engineering topics relatable and understandable to people new to the field and to people who are completely unfamiliar with engineering. Jared and his family currently reside in Flemington, New Jersey. He and his wife have three energetic, inquisitive, and awesome children. You can connect with Jared here.
Sources/References:
University of California, Berkeley
University of Illinois at Urbana Champaign
National Autonomous University of Mexico
University of Texas at Austin
Georgia Institute of Technology
University of Cambridge
University of New South Wales
Imperial College London

In this episode, we talk with Gohe A. Metaferia  M.A.Sc., P.Eng., a director of Geotechnical Practice at AtkinsRéalis. He shares insights on how to build and lead successful geotechnical teams, promote innovation and collaboration on complex projects, and integrate international standards into engineering practices.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Ask Gohe:

What key qualities do you consider essential when assembling successful geotechnical teams?
How do you create a culture of innovation and collaboration within your team, especially on complex projects involving deep foundations and slope stability?
Can you describe a challenging project where your leadership significantly impacted the outcome?
Can you describe three ways to solve a problem that involve the key parties coming together to discuss what the solution means to them?
What strategies have you used to manage and oversee multiple projects across different regions?
How has your work with the University of Ottawa's Civil Engineering Curriculum Advisory Board influenced your leadership approach in geotechnical engineering?
How do you ensure your geotechnical solutions are effective and sustainable for road and rail infrastructure projects?
What is the importance of soil improvement techniques in your field?
How do you incorporate international standards and practices into your projects?
What final piece of advice would you give to engineers aspiring to become leaders in the field of geotechnical engineering?

Here Are Some of the Key Points Discussed About the Best Strategies for Developing Unbelievably Successful Geotechnical Teams:


A crucial quality for assembling a successful geotechnical engineering team is having an advocate who understands the intricacies of geotechnical work and can effectively communicate its value to stakeholders, ensuring project acceptance and progress.
To cultivate a culture of innovation and collaboration within your team on complex projects like deep foundations and slope stability, emphasize open communication, encourage diverse perspectives, and support creative problem-solving approaches.
Effective leadership in a challenging project can significantly impact outcomes by aligning stakeholders, clarifying roles, and encouraging collaboration among team members from different disciplines. This approach helps resolve ambiguities and focuses efforts toward achieving shared goals, leading to successful project outcomes.
To solve a problem together, it's crucial to bring key stakeholders into discussions where they can share their perspectives on what the solution should achieve. This might involve workshops to integrate diverse viewpoints, forming joint task forces for collaborative analysis and solution development, and holding regular meetings to ensure ongoing alignment and adjustment as needed.
To manage multiple projects across regions effectively, use clear communication, robust project tools, and regular updates with local teams. Technology helps track progress efficiently, ensuring alignment with project goals and timely problem-solving.
Working with the University of Ottawa's Civil Engineering Curriculum Advisory Board has influenced Gohe's leadership approach in geotechnical engineering by aligning it with emerging educational and technological trends, ensuring readiness to address industry challenges effectively.
To ensure effective and sustainable geotechnical solutions for road and rail infrastructure projects, engineers integrate comprehensive analyses of subsurface conditions, cross-sectional data, and modeling with considerations like time, cost, operational constraints, and environmental impact.

In this episode, we talk with John Thornley, Ph.D., P.E., D.GE, vice president and senior geotechnical engineer at WSP in Anchorage, Alaska, about working in cold regions, studying permafrost and seismic activities, and the value of international collaboration in geotechnical engineering.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Ask John:

Can you describe the unique challenges engineers face when working in cold regions like Alaska?
What critical effects of climate change have you observed, and how can engineers better prepare for these challenges?
What is involved in assessing liquefaction hazards as the permafrost thaws, and what are the potential risks to infrastructure?
Has climate change caused permafrost to thaw, requiring it to be considered in every project?
What is the most important lesson you've learned from projects in Alaska where you had to relocate communities?
As chair of the Municipality of Anchorage Geotechnical Advisory Commission, what initiatives are you currently promoting to mitigate geotechnical risk?
How do you envision international collaboration benefiting geotechnical engineering, particularly in the study of permafrost and seismic activities?
How do you balance your professional commitments with your hobbies like cycling and traveling, and do they benefit your work?
What's your final piece of advice for engineers starting in geotechnical engineering?

Here Are Some of the Key Points Discussed About Working in Cold Regions:


Engineers in cold regions like Alaska deal with challenges like frost penetration and the effects of climate change on infrastructure, balancing long-term solutions with economic realities amid uncertain future conditions.
Engineers see climate change causing increased water movement and thawing permafrost. To prepare, they should study the site's history and geomorphology, and focus on managing surface water.
Assessing liquefaction hazards as permafrost thaws means studying how frozen sands and gravels, once stable, can become prone to liquefaction. This poses risks like unstable ground and heightened vulnerability to earthquakes, impacting infrastructure stability.
Climate change has caused permafrost thaw, making it essential to factor into every engineering project. Engineers must assess its effects on infrastructure stability and plan accordingly to ensure resilience against these changing conditions.
From projects in Alaska involving community relocation, a crucial lesson is the need for meticulous planning and engineering. Selecting the right location and investing in resilient infrastructure upfront ensures long-term safety and sustainability amid climate challenges.
John, as chair of the Municipality of Anchorage Geotechnical Advisory Commission, is promoting initiatives to reduce geotechnical risks by identifying high-risk building areas, enforcing strong building codes for earthquake safety, and pushing for consistent enforcement citywide.
International collaboration in geotechnical engineering, particularly in permafrost and seismic studies, offers diverse insights and innovative solutions. By sharing research and practices globally, engineers can improve understanding and develop more resilient infrastructure designs capable of withstanding diverse climate challenges effectively.
Balancing professional commitments with hobbies like cycling and traveling involves effective time management. Cycling provides solitude for reflection, which helps in problem-solving, while traveling to conferences enriches both professional growth and personal experiences, inspiring innovative approaches to geotechnical engineering challenges.

In this episode, we talk with Jeffrey Rissman, senior director of the Industry Program at Energy Innovation Policy and Technology LLC, about using advanced tech to cut industry emissions, balancing climate action with industry changes, and the journey to a carbon-free industry.

***The video version of this episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Questions We Ask Jeffrey:

Could you briefly discuss some of the advanced technologies for reducing industry emissions that are featured in your book?
How does your book, "Zero-Carbon Industry," deal with the complexity of manufacturing regulations while keeping firms competitive?
How do you think countries can balance the urgency of climate action with the practical challenges of institutional transformation?
What does the intersection of job creation and a zero-carbon industrial economy look like?
What are some common misunderstandings people have about transitioning to a carbon-neutral industry?
Which do you think is more crucial for achieving a zero-carbon industry: technological innovation or policy reform?
How can engineers address concerns about the initial costs of transitioning to environmentally friendly industrial practices?
What do you anticipate as the next significant advancement in industrial decarbonization?
What final advice would you give to geotechnical firms just starting their journey toward zero emissions?

Here Are Some of the Key Points Discussed About the Ways Revolutionary Tech Is Driving a Carbon-Free Industry:


The book, "Zero-Carbon Industry," dives into three sections: tackling big polluters like iron and steel, cement, and chemicals with tech fixes. It also covers wider solutions like energy efficiency and carbon capture, plus policy suggestions.
Policy is essential for transitioning to clean energy, with tailored approaches like financial incentives for early-stage projects, green procurement driving technological deployment, and scaling up, facilitating a faster shift to sustainability.
Climate action is urgent because greenhouse gas emissions are causing major damage and must be reduced. The industry sector is a major emitter, and new policies in Europe and the U.S. are driving the shift to cleaner production practices.
Achieving zero-carbon industry requires investment in new technologies, production processes, and workers. Governments that invest in these areas can gain significant economic returns through job growth and technological leadership, securing future prosperity.
Policymakers can promote clean production without being engineering experts by using effective, technology-neutral policies. Investing in clean technologies and workers boosts the economy, and measures like carbon border adjustments protect domestic industries from unfair competition.
Policy is crucial for financing and speeding up the development of clean technologies to reduce emissions. Creating demand through green procurement, financial support, and carbon pricing helps turn scientific advances into practical solutions.
Engineers can lower the cost of clean technologies like heat pumps and thermal batteries. Policies and funding can support these innovations by overcoming initial cost barriers and aiding commercial adoption.
The journey to a zero-carbon industry involves both short-term and long-term measures. Key next steps include improving energy efficiency, enhancing material efficiency, and electrifying industrial heating, all of which can significantly reduce emissions and improve performance.
Switching to cleaner materials in construction often adds only a tiny fraction to the overall cost of a building, which is usually negligible compared to other expenses.

In this episode, I talk about the evolving opportunities in remote geotechnical work, highlighting how job roles are increasingly offering the flexibility to work from home or in the field. I also discuss the tools and technologies that are facilitating this transition.

***The video version of the episode can be viewed here.***
Engineering Quotes:



Here Are Some of the Key Points Discussed About How to Utilize Technology for Remote Geotechnical Work:


Engineers can now work remotely on geotechnical projects using advanced computational tools to simulate soil and rock behavior. This allows detailed data analysis and modeling from home or remote offices.
Geotechnical project managers are mastering remote leadership, using digital tools to coordinate projects and ensure effective communication across locations. This keeps projects on track and within budget regardless of physical distance.
Geotechnical consultants provide expert advice and designing remotely, reducing the need for frequent site visits. Virtual meetings are now standard, marking a new era in geotechnical engineering.
Essential tools like Slack, Microsoft Teams, and Zoom facilitate seamless collaboration for remote geotechnical teams. Advanced geotechnical software, such as Plaxis, GeoStudio, and RocScience, enables engineers to perform complex tasks remotely, enhancing productivity.
Cloud platforms are vital for remote geotechnical work, enabling access to data and computational resources for efficient project handling and problem-solving.
Remote geotechnical work brings challenges like team cohesion and data security across time zones, but also offers opportunities for improved work-life balance, wider talent access, and reduced environmental impact.
In this exploration of remote geotechnical engineering, the undeniable evolution shapes a future without physical boundaries, promoting flexibility, technology, and sustainability for a dynamic and inclusive field.

More Details in This Episode…

About the Host: Jared M. Green, P.E., BC.GE, F.ASCE
Jared, originally from southwest Philadelphia, Pennsylvania, graduated from Syracuse University’s College of Engineering in 2001 with a B.S. in Civil Engineering. He later went on to attain his M.S. in Civil Engineering (Geotechnical Focus) from the University of Illinois, Urbana-Campaign, in 2002. In 2003, he began working in the New York City office of Langan. He has since become a Principal / Vice President and is one of the owners of this international land development engineering consulting firm. After 15 years at Langan, Jared moved to the Philadelphia office and is one of the geotechnical practice leaders in that office.

Jared is a consultant and team leader who also enjoys mentoring young engineers and first-generation college students. He has been instrumental in increasing the number of pre-college students interested in STEAM majors and fields. He strives to make complex engineering topics relatable and understandable to people new to the field and to people who are completely unfamiliar with engineering. Jared and his family currently reside in Flemington, New Jersey. He and his wife have three energetic, inquisitive, and awesome children. You can connect with Jared here.
Sources/References:
Slack
Microsoft Teams
Zoom
Plaxis
GeoStudio
RocScience
This Episode Is Brought to You by Tensar
Tensar, a division of CMC, is a world-leading manufacturer and provider of ground stabilization and soil reinforcement solutions. Our innovative geogrid technology has benefited thousands of civil construction and engineering projects around the world for over 50 years. With our Tensar+ design software, you can design for higher performance and with greater confidence.