Evans Blog

The Power of CARE: How a Clean Control Room Elevates Morale and Well-Being

Tanya Lee — Wed, 12 Nov 2025 16:42:04 GMT

Behind Every Emergency Response

A 911 control room is the heartbeat of emergency response operations - a place where seconds matter and decisions can save lives. In such a high-stress environment, the physical condition of the workspace plays a critical yet often underestimated role in staff performance, morale, and well-being. A clean, organized control room is not only a matter of professionalism - it’s a foundation for both mental and physical health.

Boosting Morale Through a Positive Environment

Dispatchers spend long hours at their workstations, often under intense pressure. A cluttered or dirty workspace can subtly amplify stress and frustration, while a clean, orderly environment promotes calmness and focus. When employees walk into a spotless, well-maintained control room, it communicates respect and care from leadership. It tells them their work - and their comfort - matters.

Morale is deeply connected to one’s surroundings. Dusty surfaces, grimy keyboards, and disorganized cables send a message of neglect, which can erode motivation over time. Conversely, a tidy workspace enhances professionalism and pride. Dispatchers who feel comfortable in their environment are more likely to remain engaged, cooperative, and positive throughout their shifts. Cleanliness also fosters teamwork - no one wants to let down their colleagues by leaving a mess behind. Over time, this collective responsibility strengthens the culture of the entire center.

Supporting Physical Health and Reducing Sick Days

The physical health benefits of a clean control room are equally significant. Dispatchers work in close quarters, sharing phones, headsets, and keyboards. Without proper cleaning, these surfaces can become hotspots for bacteria and viruses, increasing the risk of illness. Regular sanitization of shared equipment and common areas helps prevent the spread of colds, flu, and other infections that could take valuable staff members off the schedule.

Dust accumulation from electronics and HVAC systems can also trigger allergies or respiratory issues, especially for those working 10- or 12-hour shifts. Maintaining clean air vents, wiping down monitors, and vacuuming floors with HEPA filters can drastically improve air quality. Better air quality means fewer headaches, less fatigue, and improved overall concentration - essential qualities for dispatchers who must stay alert and make split-second decisions.

Enhancing Focus and Reducing Cognitive Fatigue

Cleanliness isn’t just about appearance - it directly affects cognitive performance. Clutter and visual distractions can overload the brain’s ability to process information efficiently. In a 911 center, where dispatchers handle multiple screens, radios, and phone lines simultaneously, mental clarity is paramount. A well-organized, clutter-free environment minimizes distractions, allowing dispatchers to focus on what truly matters: the caller in crisis.

Building a Culture of Care and Professionalism

Finally, maintaining a clean control room reinforces a sense of professionalism and care that extends beyond the individual. It reflects the standards of the organization to visitors, trainees, and

partner agencies. When cleanliness becomes a shared priority, it strengthens pride in the job and the workplace itself. That sense of pride often translates into better service, lower turnover, and stronger team cohesion.

In short, a clean 911 control room does more than look good - it sustains the health, morale, and efficiency of the people who keep our communities safe. Investing in cleanliness is investing in dispatchers themselves, ensuring they can perform at their best when every call counts.

About the Author

Tanya Lee, Director of EvansCare, leads initiatives that redefine how mission-critical environments are cared for. With years of experience supporting control room professionals, Tanya advocates for cleaner, safer, and more human-centered workplaces. Her work reflects a simple belief: when the workspace thrives, so do the people who keep our communities safe.

Reimagining FAA ATC Facility Resilience Through BNATCS and NextGen

mshah@evansonline.com (MS) — Thu, 23 Oct 2025 22:10:28 GMT

Building the foundation of a resilient national airspace

Modernizing FAA air traffic control facilities is not simply about adding new technology. BNATCS and NextGen represent a coordinated shift toward digital integration, modular design, and uninterrupted operations. The goal is a National Airspace System (NAS) that adapts to future needs while maintaining safety and reliability today.

These modernization initiatives are supported by significant Congressional funding and guided by measurable performance goals across Air Traffic Control Towers (ATCTs), TRACONs, and Air Route Traffic Control Centers (ARTCCs). Modernization today is measured by operational uptime, controller readiness, and infrastructure resilience.

Evans aligns its solutions with these modernization goals. The company’s console systems are modular and operator focused, helping agencies and engineering partners transition from legacy control rooms to flexible, digital-ready environments without service disruption. Planning, staging, and installation are coordinated to maintain live operations throughout each phase.

For policy and program priorities, refer to FAA NextGen Program and FAA ATC Facility Replacement Program.

Modular Design and Digital Infrastructure for the Future

BNATCS and NextGen go beyond system upgrades. They redefine how technology, people, and infrastructure interact across the FAA ecosystem. This evolution emphasizes modular, adaptable facilities that can scale with technology and operational requirements.

Evans supports this transformation by designing control environments that allow rapid adoption of new systems. Modular slatwall consoles, structured cable management, and ergonomic layouts enable facilities to upgrade mission systems without downtime. This ensures flexibility, maintainability, and consistent operational performance.

Procurement and lifecycle frameworks under modernization programs now prioritize interoperability, safety, and ease of integration. Facilities that adopt modular solutions can manage incremental upgrades efficiently, extending system life and reducing long-term costs.

For additional technical insight, review the FAA Air Traffic Technology Programs and GAO FAA Facility Modernization Reports.

FAA Modernization’s Impact on Uptime, Safety, and Airspace Capacity

The modernization of FAA air traffic control infrastructure is ultimately measured by reliability, safety, and continuous operations. Across the National Airspace System (NAS), real-time data, predictive maintenance, and modular engineering are redefining how facilities sustain performance and reduce downtime. Evans contributes to this evolution through control room environments that balance advanced technology with human performance, ensuring comfort, visibility, and precision for every controller.

These advancements reflect the modernization priorities outlined in the FAA BNATCS Program Briefing PDF, which details how next-generation systems will strengthen operational resilience and extend lifecycle reliability across all ATC facilities. By focusing on future-proof infrastructure and controller well-being, the FAA and its partners are building a safer, smarter foundation for national airspace management.

Driving Lifecycle Acceleration: Faster ATCT, TRACON, and ARTCC Replacements

mshah@evansonline.com (MS) — Wed, 22 Oct 2025 14:31:51 GMT

Structural framework setup - MMAC Academy, Oklahoma City.

A New Era of FAA Facility Modernization

The Federal Aviation Administration is entering a decisive phase in the transformation of air traffic control infrastructure. What once moved at the pace of incremental upgrades is now shifting toward strategic acceleration, backed by long-term funding and a renewed focus on operational resilience. The FAA’s modernization plan now targets four or more Air Traffic Control Tower replacements each year, a significant improvement from the previous one-per-year pace that would have required centuries to complete the full national network.

This shift is more than a construction initiative. It represents a data-informed approach to lifecycle management that aligns engineering, technology, and human performance. Asset condition assessments and lifecycle modeling now determine how each tower, TRACON, and ARTCC is prioritized for renewal. The goal is to build adaptable facilities that sustain live operations, integrate future technology, and maintain the highest safety standards without interruption.

To explore how this acceleration supports the FAA’s long-term modernization vision, visit the FAA NextGen Modernization page.

Modern Funding and Congressional Support for Rapid Replacement

Modernization at this scale is possible because of structural changes in how projects are funded and managed. The 2024 FAA Reauthorization Act and recent Department of Transportation appropriations have opened new funding streams for air traffic facility renewal. These budgets are not limited to maintenance and repair but are now directly linked to measurable outcomes in operational uptime, controller safety, and risk reduction.

Facility planners and procurement teams are using these funds to transition from traditional rebuilds to modular, phased upgrades that maintain continuous control room operations. The adoption of modular sit-stand consoles, fiber-based communications, and integrated lighting systems ensures that even during construction, facilities remain active and compliant. Congressional oversight is also more performance-oriented than ever, requiring transparent reporting and milestones that tie directly to safety, energy efficiency, and resilience.

These reforms allow the FAA to balance urgency with accountability. Funding mechanisms now encourage innovation and partnership, inviting collaboration between system integrators, engineering firms, and control room specialists such as Evans Consoles.

For more on how funding impacts modernization outcomes, review the GAO FAA ATC System Modernization Report:
GAO FAA ATC System Modernization Report
and explore the Evans FAA Control Room Modernization Solutions page

Procurement Strategies and Measurable Performance

Modernization at scale requires precision. The FAA’s procurement strategies now emphasize data, collaboration, and measurable performance across the full facility lifecycle. Contract vehicles increasingly reward partners that demonstrate engineering quality, safety compliance, and adaptability for future upgrades.

Evans Consoles operates within this framework by designing mission-critical control environments that support continuous operation while enabling future system integration. Each project begins with detailed analysis of human factors and ergonomics, ensuring that control positions support both concentration and physical endurance for long shifts.

Performance measurement no longer ends with installation. The FAA now tracks ongoing metrics such as controller wellness, energy efficiency, and integration readiness. This creates a new model of lifecycle accountability where every facility upgrade is a long-term investment in operational excellence.

By replacing static infrastructure with modular, vendor-neutral systems, the FAA has created a pathway for continuous improvement. This approach ensures that every modernization initiative contributes directly to the agency’s overarching goal of sustaining safe, efficient, and future-ready airspace operations.

For insight into successful modernization projects, see the ATCT Case Study and the MMAC Academy Training Story.

Legacy System in Investor-Owned Utilities: A Path to Modernization

Jane — Wed, 18 Sep 2024 21:03:40 GMT

In the world of investor-owned utilities (IOUs), the legacy system dilemma is a familiar story. Once cutting-edge, these aging infrastructures are now a barrier to progress, straining operations and limiting growth. Utility companies find themselves at a crossroads: hold onto the past or embrace the future. The challenge? Upgrading legacy systems is no simple feat. Yet, for those who navigate this transformation successfully, the rewards are immense—greater efficiency, security, and long-term sustainability.

This article dives into the common challenges posed by legacy systems and offers actionable strategies to help utilities modernize their infrastructure without disrupting their operations.

Understanding the Legacy System Challenge

What are Legacy Systems?

Legacy systems refer to the old technology and infrastructure that utilities have relied on for decades like Mainframe Systems, Proprietary Metering Systems, Outdated Distributed Control Systems etc. These systems have been the backbone of operations, handling everything from grid management to data collection. However, as technology has advanced, these older systems are now showing their age, unable to keep up with the demands of modern utility management.

Impact on Operations

The limitations of legacy systems are becoming more apparent each day. For example, they often lack the flexibility to integrate with newer technologies, causing inefficiencies that ripple through the organization. Maintenance costs are high, and the risk of unexpected system failures looms large. Additionally, these systems were never designed with scalability in mind, leaving utilities struggling to meet growing demands.

Real-World Example: Minnesota Power, an investor-owned utility, found itself facing increasing operational inefficiencies due to its reliance on outdated infrastructure. The system, while reliable in the past, began to slow down operations as newer technologies became critical to managing the grid’s complexity.

Why Upgrading Legacy Systems is Difficult

Complexity of Infrastructure

Upgrading legacy systems isn’t as simple as swapping out old hardware for new. These systems are deeply interwoven into the fabric of the utility’s infrastructure. Every change can have a cascading effect, making it challenging to upgrade without causing disruptions. The fear of interrupting essential services often leads to a "if it’s not broken, don’t fix it" mentality—until it does break, and the consequences are severe.

Cost Considerations

The cost of upgrading legacy systems can be daunting. Beyond the expense of new hardware and software, utilities must account for the cost of downtime, employee retraining, and potential disruptions to service. For many investor-owned utilities, the decision to upgrade becomes a balancing act—how to justify the short-term costs with the long-term benefits.

Skills Gap

Another hurdle is the skills gap. Many of the technicians who are familiar with legacy systems are nearing retirement, while younger professionals are trained on modern technologies. Bridging this gap requires strategic workforce development to ensure a smooth transition without losing institutional knowledge.

The Hidden Cost of Maintaining a Legacy System

Operational Inefficiencies

The inefficiencies of legacy systems often manifest in slower response times and increased manual workloads. For example, control room operators may have to work around outdated interfaces that are cumbersome and time-consuming. These inefficiencies not only impact day-to-day operations but also contribute to higher operating costs and lower productivity.

Security Vulnerabilities

One of the most significant risks of maintaining legacy systems is cybersecurity. Older systems were not built with today’s cyber threats in mind. As utilities become more digitized, the risk of cyberattacks grows. Legacy systems often lack the necessary security protocols, making them an attractive target for hackers. Additionally, ensuring regulatory compliance with outdated technology becomes increasingly difficult, exposing utilities to potential fines and legal challenges.

Opportunity Costs

While utilities spend valuable resources maintaining legacy systems, they miss opportunities to innovate. Every dollar spent on maintaining the status quo is a dollar that could be invested in modern, more efficient technologies. This "opportunity cost" slows down growth and prevents utilities from taking advantage of emerging technologies that could improve efficiency and customer service.

How to Update Legacy System

Incremental Upgrades

For many utilities, a full-scale system overhaul is impractical. Instead, incremental upgrades can offer a more manageable path forward. By phasing out older components and integrating newer technologies step by step, utilities can reduce disruption while modernizing their operations. For instance, introducing advanced analytics platforms or upgrading specific control room systems can make an immediate impact without the need for a complete overhaul.

Utilizing Middleware Solutions

Middleware solutions can act as a bridge between legacy systems and modern technologies. These solutions enable utilities to integrate newer platforms with their existing infrastructure, allowing for improved functionality without the need to replace the entire system. Middleware can also facilitate data sharing across systems, improving communication and efficiency.

Cloud Integration

Many utilities are turning to cloud-based solutions to modernize their operations. Cloud integration offers scalability, flexibility, and cost-efficiency, allowing utilities to store and manage data without the limitations of on-premises systems. Cloud solutions also make it easier to implement real-time monitoring and predictive analytics, giving utilities the tools they need to prevent issues before they escalate.

Training and Skill Development

To ensure a smooth transition, utilities need to invest in workforce development. Training programs can equip employees with the skills needed to manage both legacy and modern systems. By bridging the skills gap, utilities can maintain operational continuity while positioning themselves for future success.

Here is how we helped Next Era to build their 26-position control room

Conclusion

By taking a strategic approach to modernization—whether through upgrades, middleware solutions, or cloud integration—utilities can overcome these obstacles and position themselves for long-term success. The future of utility management lies in embracing technology and innovation, and those who start the modernization journey today will be the leaders of tomorrow.

By investing in modern control rooms, you can improve efficiency, enhance security, and ensure their operations are built to last. Start the modernization process today and secure your place as an industry leader.

Why Airports Are Turning to Microgrids?

Jane — Mon, 09 Sep 2024 20:03:07 GMT

Did you know that a single power outage can cost an airport up to $1 million per hour? With air traffic control systems, passenger services, and runway operations relying on constant power, it's no wonder airports are adopting microgrids at an unprecedented rate.

As sustainability targets tighten and energy reliability becomes non-negotiable, forward-thinking airports like San Diego International have already made the leap, future-proofing their operations. Are you ready to follow their lead, or will your airport be left in the dark when the grid goes down?

Here's why airports are racing to adopt them and how you can stay ahead of the curve.

Origins and Early Adoption of Microgrids in Airports

Microgrids in airports are a relatively new thing, evolving from broader advancements in energy technology, particularly in the early 2000s. Microgrids are localized energy grids that can operate independently or in tandem with the main power grid, offering a self-sustained power supply.

Airports began experimenting with microgrid technology for several key reasons:

Energy Independence: In remote locations or areas with unreliable grid power, airports sought ways to ensure continuous operations. Microgrids, incorporating renewable energy sources like solar and wind, became a natural solution.

Post-9/11 Security Concerns: After the tragic events of 9/11, the need for airport security extended beyond passengers and physical infrastructure to energy systems. Ensuring that airports had resilient energy grids capable of withstanding both natural and human-induced disruptions became a priority.

Environmental Awareness: As climate change concerns intensified, airports looked for ways to reduce their environmental impact. Microgrids, which often integrate renewable energy sources and energy storage, became attractive for airports seeking to minimize their carbon footprint.

Airports like San Diego International Airport and Denver International Airport were among the early adopters. They saw microgrids as an opportunity to bolster energy resilience while aligning with broader environmental goals.

Case Study: San Diego International Airport

San Diego International Airport (SAN) is a prime example of how airports can use microgrid technology for greater energy resilience and sustainability.

In 2019, SAN began the process of installing a microgrid system that incorporates solar power and advanced energy storage solutions. This microgrid, managed by Schneider Electric, was designed to power crucial operations such as terminal lighting, HVAC systems, and airfield lighting.

How Evans Can Help Airports Move to Microgrids

When transitioning to microgrids, airports require more than just cutting-edge technology; they also need robust control rooms to manage the complex energy systems involved. This is where Evans can help.

With over four decades of experience in designing and building control rooms, Evans has extensive expertise in both the airport and utility sectors, making us uniquely qualified to assist airports in their move toward microgrid systems.

Tailored Solutions: Every airport has different needs, and we specialize in creating custom control room solutions that fit the unique demands of each project. Whether managing renewable energy, air traffic systems, or emergency responses, our control rooms are designed to optimize operational efficiency.

Utility Expertise: Because microgrids involve utility-scale management of energy, our expertise in working with utilities positions us as a valuable partner. We understand the intricacies of energy distribution, storage, and monitoring, ensuring that your control room can handle the demands of a microgrid system.

Sustainability-Driven Design: As more airports adopt sustainable practices, our control rooms are designed to integrate with energy management systems that prioritize renewable energy use, monitor carbon emissions, and manage energy storage.

24/7 Operation: Our control rooms are engineered for continuous operation, just like the microgrid systems they manage. This means that airports can rely on their control systems to run efficiently around the clock, ensuring safety and reliability.

At Evans, we take pride in being a trusted partner to airports as they transition to more sustainable and resilient energy systems. If your airport is considering implementing a microgrid, our team of experts can help design and build a control room that will meet your operational needs and contribute to a more sustainable future.

To wrap up

As airports continue to explore sustainable and resilient energy solutions, microgrids have proven to be a practical and forward-thinking option. Early adopters like San Diego International Airport are already seeing the benefits in terms of energy reliability, cost savings, and sustainability.

By building the right control room, you can ensure your airport’s microgrid operates smoothly, securely, and sustainably.

Contact Evans today to learn more about how we can support your journey toward energy resilience.

From SCADA to ADMS: A Blueprint for the Modern Grid

Jane — Thu, 15 Aug 2024 21:06:36 GMT

SCADA: The Old Faithful

Not too long ago, SCADA (Supervisory Control and Data Acquisition) was the reigning champ of utility management systems. Like the old hammer in your toolbox, it’s straightforward and effective: SCADA keeps tabs on your utility processes, collecting and displaying data and controlling your essential operations. But as the demands on utilities scale up, the good old hammer might not be enough for the job anymore. Enter the power drill, or as we like to call it in the utility biz, ADMS.

Disclaimer: While Evans Consoles are experts in control room design and operations, we are not IT specialists. We’re here to support your transition from SCADA to ADMS by ensuring your control room is optimized for the future.

Where the World is Moving: Riding the Wave of Digital Transformation

Today’s world isn’t just about keeping the lights on; it’s about lighting up people’s houses efficiently, smoothly and predictably. As digital transformation sweeps across industries, the utility sector is not an exception. The push for optimized power grids is a strategic one aimed at harnessing the benefits of integration, advanced analytics, and real-time operational agility. Transitioning from SCADA to Advanced Distribution Management Systems (ADMS) is like upgrading from a flip phone to a smartphone; you simply get more power, precision, and possibilities at your fingertips.

What is ADMS and Why Should You Care?

ADMS stands for Advanced Distribution Management System, and it’s essentially a comprehensive platform that combines the traditional functions of SCADA with enhanced capabilities like outage management and grid optimization. Think of ADMS as the Swiss Army knife in your utility management toolkit. With features like renewable energy integration and predictive analytics, ADMS can manage your entire grid. For executives and IT managers, this means less downtime, reduced costs, and a better response to the dynamic demands of modern energy consumers. For operational managers, it spells streamlined processes, enhanced decision-making support, and a big leap toward future-ready operations.

Step-by-Step Guide: Switching from SCADA to ADMS Like a Pro

Step 1: Conduct a Thorough System Audit

Kick off your journey by rolling up your sleeves and diving deep into your current SCADA system's architecture. You need to know what works, what doesn’t, and what might give you a headache down the line. Gather data on how well your current system meets operational needs and identify the gaps that ADMS could fill.

Step 2: Get Everyone on Board

Changes are always difficult, so it’s crucial to have everyone from the boardroom to the control room on your side. Hold informational sessions to explain the benefits of ADMS, such as enhanced grid reliability, improved response times, and integration of renewable resources.

Step 3: Select the Right ADMS Partner

Look for vendors with a robust track record, stellar support, and a clear understanding of your industry’s specific challenges. Don’t just go for the shiniest tool in the box; compatibility with your existing systems and processes is key.

Step 4: Plan a Phased Rollout

Rome wasn’t built in a day, and your ADMS won’t be either. Plan a phased implementation that starts small—perhaps with a pilot project in a controlled environment. Each phase can then progressively scale based on success and lessons learned, minimizing disruption and maximizing efficiency.

Step 6: Upgrade Your Control Room Accordingly

Enhanced Displays and Interfaces: ADMS systems typically provide more complex and data-intensive interfaces than traditional SCADA systems. Upgrading display screens to larger, higher-resolution monitors can help operators better visualize detailed data and analytics provided by ADMS.

Why move from SCADA to ADMS (if so):

Improved Data Integration and Visualization: ADMS integrates various data streams and applications into a single platform. The control room should be equipped with software and hardware that can handle and display this integration seamlessly, allowing operators to manage everything from outage management to distribution automation in one place.
Ergonomic Adjustments: With the increased complexity and potential for longer monitoring periods, ensuring the control room is ergonomically designed is crucial. This can involve adjustable seating, optimal screen height and distance, and a layout that minimizes physical strain during shifts.
Advanced Communication Tools: ADMS platforms often include more sophisticated communication features to coordinate with field personnel, other utilities, and emergency response teams. Implementing advanced communication tools like integrated teleconferencing systems and secure messaging platforms in the control room can enhance coordination and response times.
Redundancy and Reliability Enhancements: With the critical nature of ADMS in managing modern power grids, enhancing the redundancy of power supplies, network connections, and system backups in the control room is advisable to ensure continuous operation during system upgrades or failures.
Security Measures: As ADMS systems are more integrated and potentially accessible via networks, upgrading cybersecurity measures in the control room is essential. This includes secure access controls, network firewalls, and intrusion detection systems to protect against cyber threats.

Conclusion: Embracing the Future

Making the leap from SCADA to ADMS isn’t just a technical upgrade — it's a strategic evolution. As power generation executives, operational managers, and IT gurus, your role is not just to keep up with the times but to lead the charge. Transitioning to ADMS positions your operations on the cutting edge of technology and management, preparing you to meet the challenges of an increasingly complex and energy-diverse future head-on. So, why settle for the status quo when you can redefine it?

The future is coming and it’s powered by ADMS. Let Evans guide you through this transformation:

Designing the Perfect 911 Dispatch Center Layout

mshah@evansonline.com (MS) — Fri, 26 Jul 2024 16:50:07 GMT

911 Dispatch Center Layout - What Is It and Why Do You Need It?

When we think about 911 dispatch centers, we often imagine high-stress environments. But behind the scenes, there's a planned layout ensuring that dispatchers can work efficiently. A 911 dispatch center layout isn't just a floor plan — it's a critical blueprint that ensures smooth operations, quick response times, and the well-being of dispatchers. So, why is this layout so crucial? It's simple: the right design can mean the difference between life and death.

What to Determine Before Designing the Layout

Before diving into the specifics of the layout, several essential stages need to be addressed. Here's a breakdown:

Operational Planning

Operational planning is the cornerstone of any dispatch center. It's about understanding the type of inputs (radio communication, security alarm monitoring, camera feed etc), types of outputs (fire and police dispatch, reporting, alarm response etc), and the specific needs of the community. This stage involves extensive research and data analysis to ensure the center can handle the workload efficiently.

Site Assessment

When we do a site assessment, we thoroughly evaluate the existing room or building space to ensure it meets the stringent demands of a 911 dispatch center. This includes scrutinizing the room’s structural integrity, accessibility, and potential for future expansion.

Ergonomic Assessment

Dispatchers often work long hours in high-stress situations. Ergonomic assessment focuses on creating a comfortable and safe working environment. This includes selecting ergonomic furniture, proper lighting, and optimal placement of equipment to reduce physical strain and fatigue.

Human Factor Engineering

Human factor engineering dives deep into understanding how dispatchers interact with their environment. This stage ensures that the layout supports intuitive workflows, minimizes distractions, and enhances focus. It's about designing a space that adapts to human needs rather than forcing humans to adapt to the space.

Only after these critical steps can you start to conceptualize the actual layout of the 911 dispatch center.

Want to receive a "dispatch center layout of the week" directly to your inbox?

Important consideration for designing 911 Dispatch Center Layout:

Regulatory Requirements

Compliance with local, state, and federal regulations is non-negotiable. These regulations often dictate specific aspects of the design, such as minimum space requirements, fire safety measures, and accessibility standards. Ensuring that your site meets these legal requirements is crucial to avoid costly changes later.

Infrastructure Requirements

A 911 dispatch center relies heavily on robust infrastructure. This includes reliable power sources, backup generators, advanced communication networks, and high-speed internet connections. The site must support these critical systems without risk of failure during emergencies.

Architectural Requirements

Architecturally, the site must be designed to support optimal workflow and efficiency. This includes considerations for soundproofing to minimize noise distractions, HVAC systems to maintain a comfortable working environment, and flexible layouts that can adapt to changing technological needs.

Core Technology Infrastructure

A modern 911 dispatch center depends on advanced technology. Assessing the site for its ability to house and support critical technology infrastructure is essential. This includes server rooms, secure data storage, and the latest dispatch software and hardware. Ensuring these technologies can be seamlessly integrated into the site is paramount for effective operations.

Collaboration Requirements

Effective communication and collaboration are the heartbeats of a 911 dispatch center. The site must facilitate real-time communication between dispatchers, emergency responders, and other key personnel. This includes considering the placement of workstations, meeting rooms, and collaboration spaces to promote efficient and clear communication.

Why the Right Layout is the Most Important Part of a 911 Dispatch Center

The layout is the backbone of any 911 dispatch center. A well-thought-out design ensures that dispatchers can access all necessary tools without unnecessary movement, reducing response times. It promotes efficient communication and collaboration among team members. Moreover, a proper layout enhances dispatcher well-being, reducing burnout and turnover rates. Simply put, the right layout is the key to a dispatch center's success.

What Kind of 911 Dispatch Center Layouts is the Most Popular?

Several layouts have proven effective in 911 dispatch centers, each catering to different needs and preferences.

Linear Layout

The linear layout is straightforward and efficient. Workstations are arranged in a single line, allowing for easy communication and quick access to supervisors. It's ideal for smaller centers with a limited number of dispatchers.

Cluster Layout

In a pod layout, workstations are grouped into clusters or pods. This design fosters teamwork and quick information sharing, making it perfect for larger centers with multiple teams working simultaneously.

Circular Layout

The circular layout places dispatchers in a circle or semi-circle around a central hub. This setup ensures that all dispatchers have a clear line of sight to supervisors and each other, promoting collaboration and rapid decision-making. It's an excellent choice for high-volume centers where coordination is key.

Hybrid Layout

A hybrid layout combines elements of linear, pod, and circular designs. It offers flexibility and can be customized to meet the dispatch center's specific needs. This layout is ideal for centers that handle a diverse range of emergencies and require adaptable solutions.

Conclusion

Creating the perfect 911 dispatch center layout is a complex but crucial task. It requires careful planning, site assessment, ergonomic considerations, and an understanding of human factors. The right layout not only enhances efficiency and response times but also supports the well-being of dispatchers, ensuring they can perform at their best when it matters most. Whether you opt for a linear, pod, circular, or hybrid design, the ultimate goal is to create a space that empowers dispatchers to save lives.

Want to get the best dispatch center layout directly to your inbox every week?

Building an Emergency Operation Center (EOC)

Jane — Mon, 24 Jun 2024 16:40:54 GMT

As a public safety manager or supervisor, revamping an existing Emergency Operation Center (EOC) or building one from scratch can be daunting. With the increasing threats, from natural disasters to cyber-attacks, we understand that having a resilient and well-designed EOC is more important than ever.

Many public safety leaders encounter common challenges, such as outdated technology, inefficient layouts, and inadequate communication systems. These issues not only hinder emergency response efforts but also put the safety and well-being of both responders and the public at risk. The pressure to modernize the Emergency Operation Center while sticking to tight budgets and regulations can feel overwhelming.

In this guide, we'll tackle these challenges and provide you with practical insights and strategies to help you build an Emergency Operation Center. Whether starting from scratch or looking to upgrade, this comprehensive approach will ensure that the EOC is equipped to handle any crisis.

Understanding the Purpose of an EOC

An Emergency Operation Center is a dedicated space where key decision-makers and support personnel come together to manage emergencies and disasters. The primary functions of an EOC include:

Coordination: Facilitating communication and collaboration among various agencies and departments.
Information Management: Gathering, analyzing, and disseminating critical information.
Resource Allocation: Managing resources efficiently to ensure a swift and effective response.
Strategic Planning: Developing and implementing response strategies.

Key Considerations When Building an Emergency Operation Center

Our approach integrates five main pillars to build an EOC: Physical Considerations, Technology Considerations, Operational Requirements, Flexibility & Scalability, and People.

Physical Considerations:

Architectural Design. Plan for an open floor layout to facilitate communication and collaboration. Include breakout rooms for private discussions and rest areas for staff.
Infrastructure Requirements: Ensure the building can support the technological and operational needs, with reliable power, HVAC systems, and redundancy.
Regulatory Compliance: Adhere to all relevant safety and building codes to guarantee the safety of the facility and dispatchers.

Technology Considerations

Core Technology Infrastructure. Equip the EOC with advanced communication systems, including redundant internet connectivity, radio systems, and telephony.
User-Focused Technology: Implement user-friendly interfaces and systems that streamline operations and reduce the learning curve for personnel.
Collaborative Technology: Utilize data visualization tools and interactive displays to foster real-time information sharing and decision-making.
Cybersecurity Requirements: Protect against cyber threats with robust cybersecurity measures to ensure the integrity and availability of critical systems.

Operational Requirements

Collaboration Requirements: Design the EOC to facilitate seamless communication and coordination among various agencies and departments.
Operating Model: Establish clear protocols for normal and upset operations to ensure smooth transitions during crises.
Regulatory Requirements: Comply with all operational regulations and standards to maintain a high level of preparedness and operational effectiveness.

Flexibility & Scalability

Operational Scope Design the EOC to handle a range of incidents, from small-scale emergencies to large-scale disasters.
Physical Space & Infrastructure: Ensure the EOC can expand, or contract as needed, with modular workstations and adaptable spaces.
Technology: Implement scalable technology solutions that can grow with the evolving needs of the EOC.
Operational Model: Develop flexible operating procedures that can be adjusted based on the nature and scale of the emergency.

People

The people who operate the EOC are its most valuable asset. Prioritizing their needs and well-being is crucial for maintaining a high level of performance during critical situations.

Ergonomics: Design workstations and the overall layout to promote comfort and reduce fatigue. Ergonomically designed furniture and equipment can significantly enhance productivity and well-being.
HMI Considerations: Human-Machine Interface (HMI) considerations ensure that systems are intuitive and easy to use, minimizing errors and training time.
Operator Comfort: Provide amenities such as climate control, comfortable seating, and rest areas to support the physical and mental well-being of staff during extended operations.

By focusing on these five pillars, you can build an Emergency Operation Center that not only meets the operational demands of today but is also prepared for the challenges of tomorrow. Our approach ensures that every aspect of the EOC is designed with both functionality and the well-being of its operators in mind.

Conclusion

Building an Emergency Operation Center is a complex task that requires careful planning. By focusing on Physical Considerations, Technology Considerations, Operational Requirements, Flexibility & Scalability, and People, you can create an EOC that enhances your ability to respond to emergencies effectively.

For public safety managers and supervisors, putting resources into a well-designed EOC is crucial for the safety and resilience of your community. If you're looking to build an EOC that will stand the test of time and adapt to your growing needs, the solution is clear: partner with experts who know the ins and outs of control room design. We have the experience and knowledge to help you create a state-of-the-art emergency operation center tailored to your specific requirements.

Looking to build your EOC from scratch or revamp the existing one?

Optimizing Control Rooms: SCADA System Integration

Greg Fandrick — Mon, 13 May 2024 21:33:52 GMT

The integration of Supervisory Control and Data Acquisition (SCADA) systems in control rooms has revolutionized how critical infrastructures operate and are managed. This article delves into the essence of SCADA systems, its operational dynamics in control rooms, and the symbiotic relationship with the Human-Machine Interface (HMI).

What are SCADA Systems?

SCADA is an advanced system used for monitoring, controlling, and acquiring data from various processes and operations in industrial settings. In utility facilities, SCADA ensures efficient, reliable, and safe operations. It collects real-time data from sensors and other devices, processes this data, and enables operators to make informed decisions based on up-to-the-minute information.

Key Components of SCADA systems:

Before integrating the SCADA system into your control room, let's explore what makes up a SCADA system in a common control room. While not an exhaustive list, in general, the key components of a SCADA system are:

Human-Machine Interface (HMI)

Purpose: The HMI is the user interface that allows operators to interact with the SCADA system. It visually presents data to the users, enabling them to monitor processes, diagnose problems, and control SCADA operations directly.

Supervisory Computer System

Purpose: This is the core of the SCADA system, responsible for data acquisition and handling. It gathers data from remote terminals, processes it, and takes appropriate control actions.

Remote Terminal Units (RTUs)

Purpose: RTUs are microprocessor-controlled devices located at remote sites, tasked with interfacing the sensors and actuators to the supervisory system. They collect data from the equipment and send it to the central SCADA system.

Programmable Logic Controllers (PLCs)

Purpose: PLCs are used in place of RTUs or alongside them for local control. They can perform complex control operations and logic functions.

Communication Infrastructure

Purpose: This component ensures the reliable transmission of data between the supervisory computer, RTUs, PLCs, and other devices. It includes the physical network and protocols.

Data Historian

Purpose: A data historian collects and stores data over time from various points in the manufacturing process. It is crucial for trend analysis, reporting, and decision-making.

Alarm Systems

Purpose: Alarm systems notify operators of process anomalies, equipment failures, or safety hazards. They are essential for preventive maintenance and emergency response.

SCADA systems integration into Control Room Infrastructure

SCADA does not exist in a control room in isolation; it’s a part of a complex system of operational inputs. Here’s a list of the typical inputs and systems found in the control room of a utility facility:

CCTV Systems
Radio Communication
Emergency Shutdown Systems
Telecommunication Systems
Environmental Monitoring Systems
Process Simulation and Optimization Software
Weather Monitoring Equipment
Fire and Gas Detection Systems
Navigation and Positioning Systems
Satellite and Radar Data
Network Control Protocols

These systems are integrated to create a comprehensive view of the operations, ensuring safety, efficiency, and regulatory compliance in the environments of a typical utility company.

So, while the SCADA system is central to the functionality of a control room, it represents just one element of a much broader array of technologies and systems that must work in concert to ensure operational success.

Designing a control room is not about SCADA system integration; it involves crafting a holistic environment where every system—from communication protocols to environmental monitoring—works seamlessly together. Remembering that SCADA is part of a larger system underscores the need for a complex approach when building and updating control room infrastructures.

How Evans can help?

As technology evolves and systems become increasingly complex, the need for sophisticated, user-friendly control environments grows ever more essential. With over 40 years of experience, Evans focuses on enhancing your operations by building comprehensive, secure, and easy-to-use control rooms tailored to your industry's needs, including SCADA systems integration. This deep expertise ensures you get control environments that are not only efficient and resilient but also keep pace with technological advancements and changing requirements.

In conclusion:

As we've seen, SCADA systems are crucial in today's industrial operations. But as technology advances and utility management becomes more complex, there's a growing need for even more sophisticated systems. This is where Advanced Distribution Management Systems (ADMS) come into play as the next step in tech evolution. In our next blog post, we’ll dive into how ADMS builds on and significantly enhances SCADA capabilities.

Revolutionizing Emergency Response: The Rise of NG 911

Jane — Mon, 22 Apr 2024 19:28:56 GMT

The buzz around Next Generation 911 (NG911) has been around for a while; it's a call to enhance our ability to respond to emergencies with precision and speed. But why NG911 isn’t just an option but a necessity for our operations?

The answer lies in the transformative potential of NG911 to revolutionize how we assess situations and deploy emergency responses. This system elevates the crucial concept of "location, location, location" to new heights, offering life-saving accuracy in pinpointing callers. The leap to Next Generation 911 is not about technological advancement; it is about fundamentally enhancing your capacity to save lives. In the realm of emergency response, every second is a battle against time, and NG911 arms us with the most sophisticated tools to win this battle.

Let's navigate NG911's journey together.

What is Next Generation 911?

NG911 represents the evolution of emergency response systems into a digital age. Unlike its predecessor, which was limited to voice calls, NG911 is a robust, IP-based system capable of handling voice, photos, videos, and text messages. This next-generation system is designed to enhance the ability of Public Safety Answering Points (PSAP) to manage call overloads, natural disasters, and effectively pinpoint the location of callers in distress.

The Current State of NG911

The transition to NG911 has been around for more than 20 years, with many states and localities actively planning or undergoing upgrades to their emergency communication systems. This nationwide initiative aims to create a "system of systems," ensuring seamless interoperability between different jurisdictions and enhancing the overall efficacy of the 911 service network. The current state of Next Generation 911 (NG911) reflects a collaborative milestone in public safety communications, significantly shaped by the early advocacy and continued efforts of the National Emergency Number Association (NENA) and the Association of Public-Safety Communications Officials (APCO). These organizations have been instrumental in championing the transition from traditional analog systems to advanced digital frameworks, ensuring that NG911 not only enhances emergency response capabilities but also fosters interoperability across jurisdictions.

Why NG911 Matters?

The transformative potential of Next Generation 911 (NG911) for 911 dispatch centers, emergency responders, and the general public is vital. Imagine a future where embedded devices, such as a grandmother's heart monitor, can detect a medical emergency like arrhythmia and automatically summon paramedics, ensuring timely intervention. Picture the telemetry systems of cars involved in accidents can instantly communicate critical crash data to 911 call centers, allowing for a swift response.

Further extending NG911's reach into public safety, home security systems will be able to directly send photos and videos of a break-in to the 911 dispatch center, providing real-time visual information. This level of integration and smart communication epitomizes the essence of NG911, transforming it from a mere concept into a life-saving reality.

By harnessing the capabilities of mobile and digital technologies within an internet protocol (IP)-based framework, NG911 promises to revolutionize how emergencies are reported and managed, making emergency services more accessible, responsive, and effective. For PSAPs, upgrading to NG911 isn't just about adopting new technology—it's about redefining the future of emergency response to create a safer, more connected community.

Upgrading to NG911: A Technology and Infrastructure Guide

Transitioning to NG911 involves more than just software updates. It requires a comprehensive overhaul of the existing 911 call center infrastructure, including the adoption of new technologies and even updates to furniture to accommodate the enhanced operational needs. Here's a brief overview of what's needed:

IP-Based Call Handling Equipment: The core of NG911 is its ability to transmit data over the internet. This necessitates the deployment of IP-based call handling systems that can manage voice, text, video, and data communications seamlessly.
Advanced Location Technology: Accurate caller location is crucial for effective emergency response. NG911 centers require sophisticated location determination technology, such as GPS and network-based location services, to quickly and accurately identify a caller’s location.
Data Management Systems: With the influx of multimedia communications, NG911 centers need robust data management systems to store, process, and retrieve large volumes of data, including photos, videos, and text messages.
Cybersecurity Measures: The digital nature of NG911 introduces new cybersecurity challenges. Comprehensive security measures, including firewalls, intrusion detection systems, and encryption protocols, are essential to protect sensitive information and maintain the integrity of the emergency communication system.
Interoperability Solutions: For NG911 to be effective, it must be interoperable across different jurisdictions and with various communication technologies. This requires standardized protocols and interfaces to ensure seamless communication between different emergency service providers.
Public Safety Broadband Network (PSBN) Integration: The PSBN provides a dedicated, high-speed network for first responders. Integrating NG911 with the PSBN ensures that emergency communications can be prioritized and transmitted without delay, even in high-traffic situations.
User Interface and Dispatch Consoles: Dispatchers need intuitive, ergonomic interfaces that can handle multiple types of communications and data streams. Upgraded dispatch consoles with multi-screen setups and customizable interfaces are crucial for efficient operation.
Training and Support Systems: With the adoption of new technologies, ongoing training and support for dispatchers and managers are paramount. This includes simulation-based training, real-time support, and continuous education on system updates and cybersecurity best practices.

How Evans Can Help You Transition to NG911

Embarking on the NG911 upgrade journey can seem daunting, but with Evans on your side, it's a challenge you're well-equipped to meet. Our team of experienced architects and IT professionals specializes in designing and implementing state-of-the-art 911 dispatch centers. From technology integration to custom furniture solutions and operational workflow optimization, Evans provides a comprehensive service package to ensure your transition to NG911 is seamless, efficient, and tailored to your unique requirements.