The Fulcrum Focus

The infrastructure sector has never had more operational data, and many have never had less clarity about what it means in the moment. Shared situational awareness replaces the fragmented, team-by-team view of assets and events with a single, real-time operational picture that every role in the organization can trust and act from, producing faster responses, stronger coordination, and infrastructure resilience that holds up under real pressure.

A single source of truth gives field and office teams shared access to real-time, reliable data across all field operations. This blog outlines the four core requirements for building one: a centralized geospatial foundation, live and offline access, seamless system integration, and workflows that teams can adapt themselves. The right field inspection app plays a critical role in capturing and syncing high-quality data directly from the field during site inspections.

Most construction QA/QC documentation captures what happened but not where. Geolocated field reports fix that by automatically attaching GPS coordinates to every observation, photo, and issue captured in the field. For infrastructure teams, that spatial context is the difference between a record that drives decisions and one that just sits there.

Most infrastructure organizations have more inspection data than they can act on and less decision-ready data than they need. Fragmented reports, disconnected GIS systems, and manual processes mean repair priorities often reflect scheduling cycles rather than current field conditions. Discover how mobile data collection, digital workflows, and GIS integration give infrastructure teams the real-time field intelligence to prioritize repairs, improve data quality, allocate budgets, and put smart infrastructure management into practice.

While soil samples and borehole logs drive critical engineering decisions, many geotechnical data workflows remain fragmented and inefficient. By implementing a digital geotechnical site investigation strategy, firms can eliminate manual errors common in traditional subsurface data collection. Paper logging, manual transcription, and scattered files slow analysis and create extra work for field and office teams. Modern geotechnical engineering technology connects field capture and geotechnical data management via borehole logging software with centralized data management and automated reporting.

Managing multiple contractors on IOU infrastructure projects becomes challenging when dependencies, timelines, and regulatory requirements are not clearly aligned. EPC partners can reduce fragmentation, but consistent outcomes depend on integrated planning, shared information, and clear ownership across teams. Programs that make progress, risks, and readiness visible are better positioned to reduce delays, limit rework, and maintain alignment as complexity increases, improving overall project execution across complex utility programs.

AI projects in the energy and utilities sector often fail for reasons that have little to do with the technology itself. The real challenge is aligning utilities and utility contractors on how field data is collected, validated, and integrated into existing systems. When those foundations are in place, artificial intelligence in utilities can move beyond pilot programs and begin delivering measurable operational value as part of broader digital transformation efforts.

Investor-owned utilities in the United States electric power industry can’t manage growing grid complexity with static maps and delayed records. When field updates fail to reach central systems, risk-based planning breaks down and crews work from incomplete information. Explore how GIS restores real-time visibility across IOU field operations for asset maintenance, routing, vegetation risk, emergency response, and long-term planning.

Investor-owned utilities (IOUs) generate vast amounts of utility data, yet high-performance field culture depends on making that information visible and usable across roles. When productivity, quality, safety, and equity metrics remain accessible to crews, supervisors, and executives, transparency strengthens accountability, coordination, and real-time decision-making. By embedding shared visibility into daily grid operations through investor-owned utility software, IOUs build resilient field cultures grounded in measurable performance.

Realizing the full potential of AI in utiltiies depends on a workforce empowered to capture high-quality data at every point of contact with the grid. By modernizing field workflows and prioritizing a human-in-the-loop approach, organizations establish the reliable data foundation necessary for long-term resilience and advanced automation.

AI data center power demands are reshaping how utilities plan, build, and maintain their electric grids and distribution systems. Faster development cycles, shifting load patterns, and new on-site assets create conditions that rely heavily on accurate, timely field intelligence. Utilities that adopt field-first workflows gain a clearer picture of evolving sites and a stronger foundation for decisions that support smart grid technology throughout each phase of AI-driven growth.

Modern electric utility operations run on data from operational technology, GIS, asset systems, information technology applications, and field crews, but silos between those utility systems create blind spots that slow outage restoration, complicate business continuity management, and raise risk. See how breaking down those silos and creating a connected operational picture turns raw operational data into faster, safer decisions in the field, the control room, and the utility field operations center. 

The first wave of utility digitization is over; the new executive mandate is to get predictive. Fulfilling that mandate requires a new breed of field technology built on three pillars: active intelligence at the point of capture, seamless enterprise integration, and immediate operational insight driven by modern data analytics and artificial intelligence. The combination of the three pillars creates a resilient operational model, helping utilities manage grid complexity and adopt smart grid technologies. It also supports the shift from reactive responses to predictive operations.”

Resilience planning demands more than a patchwork of outdated maps and scattered inspections. By combining high-level GIS with real-time field data, organizations gain the unified insight needed to predict risks, respond intelligently, and recover faster. An integrated approach transforms resilience planning into a proactive, data-driven process. It also strengthens management practices, improves data security, supports facilities teams, and delivers measurable cost savings across the infrastructure life cycle.

Stop letting broken field software and data silos kill your productivity. Replace them with no-code tools and automated workflows that fit how your teams actually work. Learn how low-code platforms empower your field teams to build the fieldwork apps they actually need, turning IT from a police force into a strategic partner.

Falsified environmental data at over 400 Colorado oil and gas sites exposed how fragile field collection systems really are. This piece shows how weak environmental data collection processes enable fraud in oil and gas companies as well as other industries — and how verification-first workflows shut it down. 

Uncertainty around funding, climate risk, and regulatory change is forcing utilities to rethink how they manage risk. This blog explores how utility risk management strategies grounded in structured data, adaptable workflows, and smart grid technology can help teams reduce delays, improve regulatory compliance, and keep grid modernization efforts on track. Learn how distributed intelligence enables better decisions, stronger coordination, and faster responses — even when conditions shift without warning. This approach unifies risk assessment and enterprise risk management (ERM) for utility companies, turning field observations into risk monitoring signals and actionable mitigation plans without slowing execution.

Reliable GIS starts with field mapping workflows designed for accuracy from the outset. These workflows keep field data and real-time data in sync with web maps and feature layers so spatial data stays trustworthy from collection to decision. By combining automatic GPS tagging, in-field validation, and mobile tools that streamline data capture, teams produce consistent data that drives dependable maps and actionable insights.

Spreadsheets fall short when it comes to capturing reliable horizontal construction daily logs. Fulcrum mobile workflows replace spreadsheets with structured, real-time documentation that improves consistency, strengthens claims, and reduces risk. By using a mobile app for construction workflows, field teams streamline business processes and replace slow, error-prone manual entry with workflow automation that works anywhere they do.

Utilities face growing pressure to identify and respond to environmental risk quickly and accurately. GIS platforms paired with mobile field data collection solutions empower utility teams by combining real-time location-based data with on-the-ground observations, enhancing environmental management strategies and compliance. By layering live and historical data while integrating field updates, this combination turns environmental risk from a reactive challenge into a proactive operational priority.

Learn how pairing field-first platforms with ArcGIS strengthens GIS accuracy and improves workflows, and how structured, real-time field data collection eliminates delays and integrates cleanly into ArcGIS systems.

Discover how Fulcrum FieldTech improves GIS data collection and geospatial data. It streamlines processes, boosts data accuracy, and enhances team efficiency with modern, customizable, real-time tools. These capabilities address common field operation challenges and enable organizations to collect data efficiently through mobile data collection technology.

Optimizing Geographic Information Systems (GIS) for field management goes far beyond basic GIS mapping. GIS improvements focus on customization, automation, mobile apps, and clean data. These changes turn GIS from a static storage tool into a platform that drives operational efficiency and smarter decisions.

Grid modernization sounds like a dream come true: smart meters, renewable energy, real-time data flowing seamlessly through a network that can anticipate problems before they even happen. It’s a future everyone’s racing toward, and telecommunications is the driving force behind it.

Geographic Information Systems (GIS) have become indispensable in engineering and consulting, offering a unique combination of spatial analysis, data visualization, and decision-making tools. Platforms like Esri’s ArcGIS provide engineers and consultants with robust tools for spatial analysis and decision-making, making GIS an integral part of modern workflows. Whether it’s improving project planning, enhancing design accuracy, or advancing sustainability, GIS empowers professionals to work smarter and deliver better outcomes. Here are five key ways GIS is driving transformation across the industry.

Urban infrastructure is in serious trouble. Decades-old bridges, pipes, roads, and grids are buckling under the weight of growing populations and years of neglect. Potholes that swallow cars, bridges hanging on by a thread, water mains bursting—this isn’t the future anyone had in mind. For the engineers, city planners, and field ops teams on the front lines, aging infrastructure is like playing a never-ending game of whack-a-mole with crises popping up faster than they can handle.

FieldTech refers to the integrated hardware and software systems that support field operations in demanding, remote, or regulated environments. From drones and sensors to AI-powered platforms and offline data sync, FieldTech helps field teams capture accurate data, reduce inefficiencies, and bridge the gap between the field and the office. As industries push for greater efficiency, safety, and compliance, FieldTech continues to evolve as a critical part of modern operations.

To guarantee safety, improve efficiency, and meet regulatory requirements, electrical utilities must collect reliable, consistent, and accurate data from a vast range of inspections and field operations, including pole inspections, vegetation management tasks, and more.

Undergrounding relocates overhead utility lines and infrastructure below ground. Cities and utility companies are increasingly adopting this to enhance the reliability and look of their electrical systems.

The construction industry has struggled with labor shortages for some time. The retirement of many older workers is one factor. Young people’s reluctance to enter construction is another. These factors coincide with a construction boom stemming from the $1 trillion bipartisan infrastructure bill, further exacerbating labor shortfalls.

When you think about field inspections, what comes to mind? Probably something like this:

How did you come up with the idea for Fulcrum? I get asked this, or a version of this question a lot, and we typically include an abbreviated version of the story when we do corporate capability briefings for new prospective customers. I’ve been asked enough times recently that I realized I should probably put it down in writing, because there are likely people at Spatial Networks that don’t even fully understand the history of Fulcrum’s origins.

Haiti is home to mesmerizing beaches, tropical flowers, great food, and beauty reflective of the sun’s love affair with the Caribbean. Unfortunately, it is also home to hurricanes, earthquakes, torrential storms, flooding and the many issues that follow disasters, particularly in the poorest country in the Western Hemisphere.

Fourth of July in Southern California was different this year. I’m sure most were prepared to enjoy family, friends and traditional fireworks. They most likely had made their last grocery store runs and mapped out their entertainment plan, when out of nowhere the plans were literally shook up. An earthquake measuring 6.4 in magnitude shook at 10:33 a.m., causing a swift change to the Independence Day celebrations in Searles Valley and surrounding areas. In classic Cali fashion, some felt the shaking happening and kept moving afterward thinking it’s normal California stuff since they have become accustomed to experiencing these tremors.

You have probably noticed that many companies have switched from paper to mobile forms, whether it was while checking in at the doctor’s office on a tablet or signing for a package with a stylus.

When we initially launched our integration with DroneDeploy on its App Market, we had other plans for expanding it. Our goal was to make drone imagery more accessible for fieldwork and ground-truthing through Fulcrum.

Last week I attended the GIS CAMA Technologies Conference in Savannah, hosted by URISA and IAAO. The event was a meeting-of-the-minds for tax assessors, property appraisers, and the GIS / technical staff for the industry writ-large to discuss the latest in tech and trends for the property assessment community.

Unmanned Aerial Vehicles (UAVs) are becoming increasingly common in mapping, offering affordable aerial imagery on demand. Once an expensive hobby for tinkerers, UAVs have quickly transformed into a disruptive force in the geospatial industry. The ability to deploy a cost-effective, agile sensor platform for real-time surveying has unlocked vast possibilities for data collection.

Previously on the blog, we’ve discussed the concept of field reports and groundtruthing on top of raster data (like satellite imagery), and the simplicity of accomplishing this in Fulcrum. Using Fulcrum’s native support for MBTiles-based map tile packs, any raster can be turned into a portable tilecache you can load onto mobile devices in Fulcrum, allowing you to annotate on top of the map using custom-designed forms.

In our previous post, we shared our experience at JIFX, the experimental event series organized several times a year by the Naval Postgraduate School at Camp Roberts, CA. JIFX provides a unique setting for field experimentation, bringing together industry, academia, and government to test and refine technologies in real-world conditions. Unlike traditional demonstrations, this event places engineers and their systems side by side, enabling direct collaboration and hands-on integration. Proving success—or uncovering failure—in this environment helps stakeholders see technologies in action while allowing engineers to push the limits of their software, hardware, or systems. As an engineer and designer of Fulcrum, participating in this kind of field experimentation is invaluable, providing firsthand insight into how the platform performs in dynamic conditions and where improvements can make it even more effective for field data collection.