Elevators as Critical Infrastructure  

Industry trends, emerging challenges, and Metron’s vision for the future of vertical mobility 

For decades, the elevator was an essential yet largely invisible element of a building. Although it was present and functional, it was rarely noticed. Today, vertical mobility stands at the center of a much broader conversation, one that goes beyond transportation and touches on safety, sustainability, accessibility, and user experience.

Rapid urbanization, an aging population, and the vertical expansion of modern buildings combined with rising user expectations, are transforming the elevator from a simple mechanical system into a critical piece of everyday infrastructure. It is no longer just a means of moving between floors; it is a key factor in how people experience, navigate, and trust a building.

The elevator is no longer considered the “final stage” of a project. It is now a core structural component, shaped by complex mechanical, electrical, architectural, and operational requirements. Its performance directly influences the building’s functionality, efficiency, and long-term value.

For Metron, the future of the elevator industry is not a trend-driven narrative but it is an engineering challenge. One that demands innovation, responsibility, and precision. By rethinking vertical mobility from the ground up, Metron approaches every solution as an opportunity to elevate not just buildings, but the way people live and move within them.

Where the Elevator Industry Is Heading 

The elevator industry is entering a period of transition, not revolutionary, but deep and structural. This transformation is reshaping priorities, redefining value, and setting new standards for the years ahead. At its core, this new phase is driven by four key pillars: 

1. A stronger focus on safety and long-term reliability
   Safety is no longer assessed solely at the point of certification. It is increasingly evaluated through the system’s overall performance throughout its entire lifecycle. Consistency, durability, and predictable behavior over time are now as critical as initial compliance. 

2. Adaptation to existing buildings and complex projects
   Renovations, narrow shafts and demanding architectural constraints are growing rapidly, surpassing standard new-build projects. The ability to design flexible, compact, and tailor-made solutions has become a decisive competitive advantage.

3. A shift toward sustainable and energy-efficient solutions
   This is not a trend, it is a requirement. Regulations, investors, and end users are all raising expectations around environmental performance, pushing the industry toward smarter energy management and reduced operational footprints.  

4. Elevator connectivity within the smart building ecosystem
   The elevator is no longer a standalone system. Connectivity enables faster and more accurate fault reporting, data-driven monitoring, and proactive actions that prevent failures before they occur enhancing reliability, uptime, and user experience.

What’s Changing in Regulations: From Compliance to Design Philosophy  

European standards led by EN 81-20, EN 81-50, EN 81-21, and EN 81-70 for accessibility, have introduced significantly stricter requirements compared to previous standards. These updates raise the bar not only in terms of safety, but also in how conformity is assessed and demonstrated.

The shift is clear: regulation is no longer a checklist exercise. It is becoming an integral part of the design process itself. Today’s standards demand more detailed documentation, stricter inspections, tighter acceptance limits, and higher technical specifications across the entire lifecycle of the elevator.

In practice, this means: 

• Headroom and pit dimensions are strictly defined, leaving minimal room for improvisation
• Maintenance access is a core design criterion, not an afterthought
• Documentation is as critical as the solution itself, ensuring transparency, traceability, and long-term reliability

This reality means that elevator design can no longer rely on “generic solutions” or empirical practices. It requires deep technical expertise, an excellent understanding and application of regulations, and true adaptability to each project’s constraints.

Over the next few years, specifically within the coming three-year period, the industry is moving toward the adoption of new international standards, with the ISO 8100 series emerging as a key reference point.

The ISO 8100 standards apply to elevators and escalators, establishing unified international rules for safety, design, and installation of systems for transporting people and goods. Their objective is to gradually replace older standards such as EN 81-20 and EN 81-50, creating a harmonized global framework aligned with modern health and safety requirements.

Key pillars of the ISO 8100 series include:

• ISO 8100-1, covering the production and installation of elevators
• ISO 8100-2, focusing on the design and evaluation of individual components

With the adoption of the corresponding EN-ISO versions in Europe, these standards are expected to become the primary global reference for the industry.

This evolution further reinforces the shift away from a mindset of simple compliance toward one of documented, responsible design. Elevators are no longer assessed solely as end products, but as systems that must meet specific requirements throughout their entire lifecycle from design and installation to maintenance and long-term operation.

Technology: Less Spectacular, More Meaningful 

Unlike other industries, technological progress in elevators is not expressed through dramatic leaps, but through substantial, incremental improvements:

• Gearless motors with higher energy efficiency
• More precise motion control and leveling systems
• Advanced mechanical safety systems
• Better integration of hardware and software

Technology serves a clear purpose: more reliable, safer, and more durable systems, especially in demanding environments. 

Project Requirements Are Changing 

Today, engineers and architects are increasingly required to manage:

• Narrow shafts
• Low pit depth and headroom
• An optimal balance between aesthetics and functionality
• Strict project timelines

The elevator is no longer treated as the “final stage” of a project. It is now considered a structural element of the building, with mechanical, electrical, structural, and operational requirements. As a result, it must be integrated from the earliest design stages, influencing:

• Building configuration (architectural, structural, MEP, fire safety)
• User circulation and flow
• The overall user experience

How Metron Approaches the Future of Vertical Transportation 

For Metron, the future of the industry is not a narrative but it is an engineering challenge.

This approach is built on three core principles:

1. Safety as a Non-Negotiable Foundation
Certified components, compliance with the strictest standards, and design focused on long-term reliability form the backbone of every solution.

2. An Engineering-First Philosophy
Every solution begins with a detailed study of the project’s real conditions. The goal is not to adapt the project to the product, but to adapt the solution to the project.

3. Solutions Designed for Installation and Maintenance
Safety does not end with delivery and certification. It extends throughout the entire lifecycle of the elevator. Design therefore takes into account:

• The installer
• The maintenance technician
• The long-term operation of the system

From Today to Tomorrow 

The elevator industry does not change with noise. It evolves through consistency, technical maturity, and responsibility. The companies that will stand out are not those promising the “next big innovation,” but those that invest steadily in quality, safety, and expertise.

As global development continues to move toward vertical construction, the industry must respond with reliability, safety, and human-centered design.