H2 2026 Market Trends for Electric Strikes

The electric strike market in the second half of 2026 is poised for significant evolution, driven by converging technological advancements, heightened security demands, and shifting end-user expectations. Key trends shaping the landscape include:

1. Dominance of Smart Building & IoT Integration:

   • Deep Integration: Electric strikes will be less standalone devices and more integral nodes within unified smart building platforms (e.g., platforms from Honeywell, Johnson Controls, Siemens). Seamless integration with BMS, lighting, HVAC, and visitor management systems will be standard, enabling holistic automation (e.g., lights turn on upon authorized entry, HVAC adjusts).
   • Enhanced Data & Analytics: Strikes equipped with sensors will provide valuable data on door status, usage patterns, and potential tampering. This data will feed into predictive maintenance systems and security analytics platforms, moving beyond simple access logs.
   • Cloud-Based Management: Centralized cloud platforms will dominate for provisioning, monitoring, and managing large fleets of electric strikes across multiple sites, enabling remote configuration, real-time alerts, and simplified reporting.

2. Biometrics & Mobile Credentials as Primary Authentication:

   • Contactless Access Ubiquity: NFC, Bluetooth LE (especially using smartphones as credentials via dedicated apps), and QR codes will become the dominant primary methods, driven by hygiene concerns and user convenience. Traditional card readers will increasingly serve as backups.
   • Integrated Biometrics: Fingerprint and facial recognition readers will be more commonly integrated directly with or mounted adjacent to electric strike housings, particularly in high-security or high-turnover environments (corporate offices, healthcare, data centers). Focus will be on liveness detection and anti-spoofing.
   • Multi-Factor Authentication (MFA): Expect wider adoption of MFA at critical doors, combining something you have (phone/credential), something you know (PIN), and something you are (biometrics) for enhanced security.

3. Cybersecurity as a Paramount Concern:

   • Embedded Security: With increased connectivity, electric strikes will feature stronger embedded security: secure boot, hardware-based encryption (HSM/TPM), regular over-the-air (OTA) firmware updates, and adherence to standards like UL 2900-1/2-3.
   • Zero Trust Architecture (ZTA): Access control systems incorporating electric strikes will increasingly adopt ZTA principles, requiring continuous verification and minimizing trust assumptions, even within the network perimeter.
   • Focus on Supply Chain Security: Manufacturers will face greater scrutiny regarding component sourcing, secure manufacturing processes, and vulnerability disclosure programs.

4. Sustainability & Energy Efficiency:

   • Low-Power Designs: Driven by ESG goals and building certifications (LEED, BREEAM), there will be a strong push for electric strikes with significantly lower power consumption, especially in fail-safe modes. This includes optimized solenoid designs and advanced power management.
   • Battery-Operated & Solar Options: For applications where running power is difficult or costly (remote gates, historical buildings), reliable battery-powered and solar-assisted electric strikes will gain traction, leveraging energy-efficient communication protocols (e.g., LoRaWAN, NB-IoT).
   • Sustainable Materials: Increased use of recycled metals and plastics in housing and components, along with packaging reduction.

5. Convergence with Video & AI:

   • “See & Verify” Access: Integration between electric strikes and video surveillance systems will deepen. Door stations or cameras at entry points will stream live video to smartphones or central monitoring stations upon access attempts, allowing remote visual verification before granting access.
   • AI-Powered Analytics: AI will analyze video feeds at entry points to detect loitering, tailgating attempts, or suspicious behavior, triggering alerts or automatically locking down doors via the electric strike.
   • Frictionless Access: In controlled environments (e.g., corporate campuses), AI-powered facial recognition combined with geofenced mobile credentials could enable truly hands-free, automatic door unlocking as authorized users approach.

6. Focus on Resilience & Redundancy:

   • Hybrid Fail-Safe/Fail-Secure: Solutions offering configurable fail-safe/fail-secure modes, or even dual-mode operation, will be sought after for critical infrastructure to balance life safety (fire egress) and security needs during power outages.
   • Enhanced Physical Security: Increased demand for anti-tamper features, reinforced housings, and designs resistant to physical attacks (prying, kicking) due to rising security threats.
   • Backup Power Integration: Seamless integration with UPS systems or building backup generators will be critical, especially for fail-safe strikes in secure areas.

7. Market Expansion & Diversification:

   • Residential Growth: Smart home adoption will continue to drive demand for aesthetically pleasing, easy-to-install electric strikes integrated with popular platforms (Apple Home, Google Home, Amazon Alexa).
   • Industrial & Logistics: Growth in automated warehouses and secure industrial facilities will fuel demand for ruggedized, high-cycle electric strikes integrated with automated systems.
   • Healthcare & Education: Focus on patient safety, controlled access to sensitive areas (pharmacies, labs), and seamless visitor management will drive adoption in these sectors.

Conclusion:
By H2 2026, the electric strike market will be characterized by intelligent, connected, and secure devices deeply embedded within broader building ecosystems. Success will depend on manufacturers’ ability to deliver highly secure, energy-efficient solutions with seamless integration, advanced authentication, and robust cybersecurity, while meeting diverse application needs from smart homes to critical infrastructure. The focus will shift from merely locking and unlocking to providing intelligent access insights and experiences.

Common Pitfalls Sourcing Electric Strike (Quality, IP)

Sourcing electric strikes requires careful consideration to ensure reliability, security, and compatibility. Overlooking key factors—especially quality and ingress protection (IP) ratings—can lead to system failures, security vulnerabilities, and costly replacements. Below are common pitfalls to avoid:

Inadequate Quality Assessment

Many buyers focus solely on price, leading to the selection of low-cost electric strikes with substandard materials and poor construction. These may use inferior solenoids, weak housings, or low-grade plating that wears quickly. As a result, they are prone to mechanical failure, inconsistent operation, or premature degradation—especially in high-traffic or harsh environments. Always verify build quality by reviewing manufacturer certifications, requesting samples, and checking for compliance with standards such as UL, CE, or EN.

Ignoring Ingress Protection (IP) Ratings

A major oversight is neglecting the IP rating when selecting electric strikes for outdoor or challenging indoor environments. Electric strikes installed in exposed areas (e.g., exterior doors, car parks, or humid climates) must resist dust, moisture, and corrosion. Choosing a strike without an appropriate IP rating—such as IP65 or higher—can result in internal component failure due to water ingress or dust accumulation. Always match the IP rating to the installation environment to ensure long-term functionality and reliability.

Assuming Universal Compatibility

Electric strikes vary significantly in dimensions, mounting styles, and voltage requirements. Assuming a one-size-fits-all approach can lead to compatibility issues with existing door hardware, frames, or access control systems. Mismatched faceplates, incorrect clearances, or incompatible voltages may result in improper latching or damage to the strike or lock. Always verify physical dimensions, electrical specs, and compatibility with the door and lock type before purchasing.

Overlooking Fail-Secure vs. Fail-Safe Requirements

Confusing fail-secure and fail-safe operation modes can compromise safety and code compliance. In fire egress situations, using a fail-secure strike (which remains locked during power failure) may violate building codes. Conversely, using a fail-safe strike (unlocks when power is lost) in high-security areas could create vulnerabilities. Understand local regulations and application needs to select the correct operational mode.

Skipping Environmental and Installation Factors

Temperature extremes, exposure to direct sunlight, or corrosive atmospheres can degrade electric strikes not designed for such conditions. Even with a decent IP rating, thermal cycling or UV exposure can impact performance over time. Ensure the strike is rated for the environmental conditions of the installation site and consider additional protective measures like weather hoods or corrosion-resistant finishes.

Logistics & Compliance Guide for Electric Strike

Product Overview

Electric strikes are electromechanical locking devices used in access control systems to release door latches upon receiving an electronic signal. They are commonly installed on commercial and institutional buildings to enable keyless entry, remote access, and integration with security systems. Proper logistics handling and regulatory compliance are essential for safe and legal deployment.

Regulatory Compliance

Electric strikes must adhere to various regional and international standards to ensure safety, performance, and interoperability. Key compliance requirements include:

• UL Certification (Underwriters Laboratories): In North America, electric strikes should be UL 294 listed for access control system units or UL 10C for fire-rated assemblies when used on fire doors.
• CE Marking: Required for sale within the European Economic Area (EEA), indicating conformity with health, safety, and environmental protection standards. Electric strikes may fall under the Machinery Directive or Low Voltage Directive.
• RoHS Compliance: Restriction of Hazardous Substances (RoHS) applies to electronic components, limiting the use of substances such as lead, mercury, and cadmium.
• Fire and Building Codes: Electric strikes installed on fire-rated doors must comply with NFPA 80 (National Fire Protection Association) and local building codes. Use only fire-rated electric strikes where required, and ensure proper installation with fire door coordinators and closers.
• ADA Compliance: Where applicable, ensure the electric strike enables accessible egress in accordance with the Americans with Disabilities Act (ADA), including proper door-opening force and release mechanism.

Shipping and Handling

Proper logistics procedures help prevent damage and ensure product integrity:

• Packaging: Electric strikes should be shipped in manufacturer-sealed, anti-static packaging with cushioning to protect internal components.
• Storage Conditions: Store in a dry, temperature-controlled environment (ideally 10°C to 30°C or 50°F to 86°F) away from direct sunlight and moisture to prevent corrosion or electronic degradation.
• Transportation: Use freight carriers experienced in handling electronic hardware. Avoid dropping or stacking heavy items on packaged units.
• Inventory Management: Track lot numbers and manufacturing dates for traceability, especially for warranty and recall purposes.

Installation and Site Compliance

Ensure electric strikes are installed according to manufacturer instructions and local regulations:

• Voltage Compatibility: Verify that the electric strike is compatible with the control system voltage (e.g., 12VDC, 24VDC, 120VAC) to prevent overheating or failure.
• Wiring Standards: Follow NEC (National Electrical Code) Article 760 for fire alarm and signaling circuits, especially when integrating with life safety systems.
• Fail-Safe vs. Fail-Secure Configuration: Choose the appropriate mode based on egress requirements. Fail-safe strikes unlock during power failure (required for some fire exits), whereas fail-secure remain locked.
• Door Hardware Compatibility: Confirm compatibility with existing locks, door frames, and latching mechanisms to avoid misalignment or operational issues.

Documentation and Certification

Maintain complete documentation for audit and compliance purposes:

• Retain product data sheets, compliance certificates (UL, CE, RoHS), and installation manuals.
• Provide facility managers with as-built drawings indicating electric strike locations and access control integration.
• Keep records of inspections and maintenance per NFPA 80 requirements for fire doors.

Environmental and Disposal Considerations

Electric strikes contain electronic components and metals requiring responsible end-of-life handling:

• Do not dispose of in regular trash. Recycle through certified e-waste facilities.
• Follow WEEE (Waste Electrical and Electronic Equipment) directives in Europe for proper disposal and recycling.

Technical Support and Warranty

• Register products with the manufacturer upon installation to activate warranty coverage.
• Use only authorized service technicians for repairs or replacements to maintain compliance.
• Report any safety-related malfunctions to the manufacturer and relevant regulatory bodies if required.

By following this logistics and compliance guide, stakeholders can ensure safe, legal, and reliable operation of electric strike systems across various applications.

Declaration: Companies listed are verified based on web presence, factory images, and manufacturing DNA matching. Scores are algorithmically calculated.