⚠ SECURITY ASSESSMENT ⚠
VEHICLE-BORNE TERRORISM:
Threat Assessment, Barrier Technology Review &
Public Safety Deployment Strategy
Prepared by:
Al Evan
Homeland Security & Public Safety Expert
Counterterrorism | Critical Infrastructure Protection | Public Event Security
Classification: FOR OFFICIAL USE — Law Enforcement & Public Safety Professionals
Date: March 2026
EXECUTIVE SUMMARY
Vehicle-ramming terrorism represents one of the most lethal and operationally simple threats facing modern public safety agencies. Requiring minimal planning, no specialized weaponry, and offering near-universal access to the primary instrument of attack — a motor vehicle — this tactic has evolved into a preferred method for both internationally inspired and homegrown extremists seeking to inflict mass casualties on civilian populations.
This assessment examines the threat landscape, anticipatory measures public safety agencies must adopt, the spectrum of physical barrier technologies available, and a structured deployment framework with reference to leading product solutions including Mifram Security barriers (available via Security Pro USA) and Delta Scientific crash-rated systems.
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CRITICAL FINDING Vehicle ramming attacks are LOW-COST / HIGH-IMPACT. A determined attacker requires no specialized training, no smuggled weapons, and no organizational support. Open public spaces — farmers markets, street festivals, parade routes, holiday gatherings, outdoor concerts — present target-rich environments with minimal natural barriers. Passive hardening of these venues through crash-rated barrier deployment is not optional: it is a public safety imperative. |
SECTION 1: THE HOMEGROWN VEHICLE-RAMMING THREAT PROFILE
1.1 Why Vehicle Attacks Are Increasing
Since 2014, vehicle-ramming attacks have accelerated globally, driven by several converging factors:
• Ease of acquisition: Vehicles require no background check, no permit, and no specialized skill to operate as a weapon.
• Media amplification: High-casualty attacks generate significant coverage, which radicalized individuals regard as propaganda value.
• Encrypted operational security: Homegrown actors who self-radicalize online can plan attacks with no detectable pre-attack communications.
• Failure of conventional interdiction: Knife checks, bag searches, and metal detectors offer zero protection against vehicle threats at perimeter approaches.
• Increasing vehicle mass: The proliferation of heavy-duty pickup trucks and electric vehicles — notably weighing 6,000–9,000+ lbs — dramatically increases kinetic energy at impact.
1.2 Pattern of Attack: Targeting Logic
Analysis of documented vehicle-ramming incidents reveals a consistent targeting methodology used by homegrown actors:
|
Target Type |
Why Selected |
Notable Incidents |
|
Open-Air Markets & Fairs |
High pedestrian density, limited barriers, predictable attendance |
Waukesha Christmas Parade (2021), New Orleans Bourbon St. (2025) |
|
Holiday Parades & Festivals |
Fixed route enables approach planning; crowds stationary |
Berlin Christmas Market (2016), Magdeburg (2024) |
|
Pedestrian Promenades |
Long linear kill zone, no natural barriers |
Nice Promenade des Anglais (2016), Barcelona La Rambla (2017) |
|
Public Transit Hubs |
Concentrated arrivals/departures, predictable timing |
London Bridge (2017), Stockholm Drottninggatan (2017) |
|
Outdoor Concerts & Sporting Events |
Mass gathering, advertised publicly, emotionally significant |
Multiple threat assessments, several interdictions |
1.3 The Electric Vehicle Escalation Factor
Public safety planners must account for a critical emerging variable: the proliferation of heavy electric vehicles as an inadvertent upgrade to the attacker's arsenal.
• The Ford F-150 Lightning used in the 2025 New Orleans Bourbon Street attack weighed over 6,000 lbs and reached 60 mph within a short distance due to instant electric torque.
• Tesla Cybertruck, Rivian R1T, and Chevy Silverado EV all exceed traditional vehicle weights by 800–2,000 lbs.
• EV instant torque means run-up distances for acceleration to lethal speeds are dramatically shorter than traditional combustion vehicles.
• Many legacy barrier systems rated to stop a 15,000 lb vehicle at 30 mph may be inadequate against a 7,500 lb EV at 50+ mph.
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PLANNING IMPLICATION All barrier specifications should be reviewed against M40 or M50 rating standards (stopping a 15,000 lb vehicle at 40–50 mph). Systems rated only to M30 may be insufficient given modern EV weights and acceleration profiles. |
SECTION 2: WHAT PUBLIC SAFETY MUST ANTICIPATE AND PREPARE FOR
2.1 Pre-Event Intelligence and Site Assessment
Effective vehicle threat mitigation begins weeks before any event, not the morning of. Agencies must institutionalize the following pre-event protocols:
• Conduct a formal vehicle threat assessment for every permitted public gathering exceeding 500 attendees. Venue Threat Assessment (VTA):
• Identify and map every vehicle approach vector within a 1,500-foot radius of the event perimeter. Rank by threat potential based on road width, speed limit, sightlines, and run-up distance. Approach Route Mapping:
• Not all approaches are equal. Prioritize access routes that provide an attacker with 200+ feet of unobstructed acceleration distance toward the crowd. Critical Approach Identification:
• Calculate minimum stand-off distances required to reduce lethality even if a vehicle penetrates the outer barrier layer. Stand-off Distance Analysis:
• Engage municipal public works departments early. Utility infrastructure, drainage, and subsurface conditions affect rapid barrier deployment options. Coordination with Public Works:
2.2 The Layered Defense Model
No single barrier system provides absolute protection. Effective vehicle threat mitigation requires concentric layers of security — each layer slowing, redirecting, or stopping a vehicle before it reaches the crowd:
|
Layer |
Zone |
Purpose |
Typical Asset |
|
1 — Outer |
500–1,500 ft out |
Deter & channel — reduce approach speed and redirect attackers to controlled corridors |
Traffic cones, delineators, law enforcement presence |
|
2 — Perimeter |
100–500 ft out |
Hard stop — crash-rated barriers at all vehicle approach vectors |
Portable crash barriers, bollards, beam barriers |
|
3 — Interior |
0–100 ft |
Crowd separation — keep pedestrians away from any residual penetration zone |
Crowd control fencing, jersey barriers, personnel lanes |
|
4 — Response |
Throughout |
Rapid response — staged EMS, law enforcement, and emergency vehicle egress lanes |
Designated emergency corridors in barrier layout |
2.3 Staffing and Operational Considerations
• Assign specific personnel to barrier integrity during the event — barriers that are displaced or left open constitute a critical vulnerability. Dedicated Barrier Managers:
• Pre-plan and clearly mark emergency lanes. Barriers with swing-gate or retractable features allow emergency ingress without compromising the protective perimeter. Emergency Vehicle Access:
• All authorized vehicles entering the secure zone should be documented, credentialed, and escorted. Prevent 'badge creep' — vehicles authorized for setup do not automatically have access during the event. Credentialed Vehicle Control:
• CCTV cameras covering all barrier approaches, with real-time monitoring, enable early warning of an inbound vehicle threat. Surveillance Integration:
• Establish radio channels and code words specifically for vehicle threat events. Ensure barrier personnel can immediately communicate with law enforcement command. Communication Protocol:
2.4 Permanent vs. Temporary Deployment Planning
Public safety planners must distinguish between two deployment environments and plan accordingly:
• Warrants fixed, deep-foundation systems — crash-rated bollards, wedge barriers, and hydraulic systems that operate daily. Permanent High-Risk Infrastructure (embassies, courthouses, transit hubs, sports arenas):
• Warrants modular, rapidly deployable portable barriers that can be staged, deployed, and recovered by small teams. Recurring Public Events (weekly farmers markets, seasonal fairs, parade routes):
• Warrants pre-positioned portable crash-rated systems that can be deployed in under 30 minutes, stored between events, and reused across multiple venues. One-Time or Emergency Events:
SECTION 3: BARRIER TECHNOLOGY REVIEW
3.1 Understanding Crash Ratings
All vehicle barrier specifications must be evaluated against internationally recognized crash-rating standards. The two primary rating systems are:
|
Standard |
Rating |
Vehicle / Speed |
Max Penetration |
|
ASTM F2656 |
M30 / P1 |
15,000 lb at 30 mph |
< 3.3 ft (1 m) |
|
ASTM F2656 |
M40 / P1 |
15,000 lb at 40 mph |
< 3.3 ft (1 m) |
|
ASTM F2656 |
M50 / P1 |
15,000 lb at 50 mph |
< 3.3 ft (1 m) |
|
DoS / DoD (Legacy) |
K4 / K8 / K12 |
15,000 lb at 30/40/50 mph |
Varies by L-rating |
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RECOMMENDATION For public event deployment in environments where vehicles can achieve 40–50 mph approaches, agencies should require M40 or M50 certified barriers. M30-only systems may be insufficient for modern EV threat profiles. |
3.2 Fixed Permanent Barriers
Crash-Rated Steel Bollards
Steel bollards are the most widely deployed permanent anti-vehicle measure. Spaced 4–5 feet apart, they allow pedestrian passage while stopping vehicle threats. Available in shallow-foundation designs requiring as little as 18 inches of excavation.
• Advantages: Aesthetically adaptable (can be covered in custom architectural jackets), low maintenance, no operational requirements, effective in dense urban environments.
• Limitations: Permanent installation; not relocatable; gaps must be planned carefully to prevent motorcycle or bicycle-borne threats.
• Typical rating: M30 to M50 depending on foundation depth, spacing, and model.
Hydraulic / Electric Wedge Barriers
Surface-mounted or shallow-foundation wedge barriers rise from the ground to block vehicle passage and drop flush to permit authorized vehicles. Industry standard for embassy and military base entry control.
• Advantages: High throughput for authorized vehicles, fast emergency deployment (0.5–1.5 seconds), remote and automatic control options.
• Limitations: Requires power, maintenance contracts, and trained operators; installation cost is significant; not appropriate for temporary deployments.
• Typical rating: K4 through K12/M50 depending on model and installation depth.
Beam and Cable Barriers
Steel beam or high-tensile cable systems spanning a roadway, blocking vehicle passage at access points. Some models stop 15,000 lb vehicles at 50 mph with zero penetration.
• Advantages: Protects wide road spans that bollards cannot cover; useful for parking structure entries and wide driveways.
• Limitations: Requires anchor posts; not appropriate for pedestrian-intensive zones without supplemental bollards.
3.3 Portable and Rapidly Deployable Barriers
Modular Anti-Ram Surface Barriers
These systems deploy without excavation, requiring no subsurface preparation. Modular units connect in series to create a continuous barrier line of any required length. Best practice for temporary events.
• Advantages: Deployable by 1–3 personnel with no tools; relocatable; no excavation; scalable to any road width; certified crash ratings available; cost-effective vs. permanent systems.
• Limitations: Require proper placement on a surface capable of absorbing energy transfer; anchor systems improve penetration performance; must be staged and stored properly.
• Key consideration: The modular L-shaped or wedge design converts a vehicle's horizontal momentum to vertical, transferring energy into the ground rather than allowing forward movement.
Portable Towable Barricades
Towable crash barricades can be rapidly positioned by a single vehicle and achieve certified crash ratings, ideal for law enforcement rapid deployment at unexpected threat scenes.
• Advantages: Single operator deployment; rapid setup (20–30 minutes for some models); vehicle access control during setup; no tools required.
• Limitations: Heavier footprint than fully modular systems; requires a tow vehicle for repositioning.
Portable Bollard Systems
Stackable, compact bollard units that can be positioned rapidly at pedestrian entry points without any installation. Some models achieve M30 ratings in groups of 5 units and M50 in groups of 10.
• Advantages: Extremely portable; allows granular coverage of pedestrian corridors while blocking vehicles; allows emergency personnel to quickly pass bollards if repositioned.
• Limitations: Lower crash ratings than larger barrier systems; best used as supplemental interior protection, not as primary perimeter defense.
Concrete and Water-Filled Barriers
Jersey barriers (concrete) and water-filled plastic barriers provide passive protection and are widely used. However, these are passive systems with no certified crash rating, and their effectiveness against high-speed truck attacks is highly variable.
• Advantages: Inexpensive; widely available; no power requirement; visual deterrent.
• Limitations: Not crash-rated; concrete barriers can be launched as secondary projectiles upon high-energy impact; water-filled barriers significantly underperform vs. certified systems; heavy and difficult to reposition without equipment.
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CRITICAL LIMITATION Concrete Jersey barriers and water-filled barriers are NOT a substitute for crash-rated barrier systems. They may stop or impede a low-speed vehicle but can fail catastrophically — and even become secondary projectiles — in a high-speed truck attack. They should only be used in combination with certified systems or where no threat vehicle can achieve significant approach speed. |
SECTION 4: FEATURED BARRIER SOLUTIONS — PRODUCT SPOTLIGHT
4.1 Mifram Security Barriers
Mifram Security, headquartered in Israel with over 60 years of experience in protective defense systems, is one of the world's leading developers of portable anti-vehicle barrier systems. Their products are deployed in over 52 countries and used by the U.S. Army, U.S. Air Force, and security forces globally. More than 80,000 Mifram products have been installed worldwide.
Mifram MVB — Modular Vehicle Barrier (Flagship Product)
The MVB is Mifram's signature portable barrier. Its L-shaped design converts a vehicle's horizontal momentum into vertical momentum, directing kinetic energy into the ground to stop forward movement. Deployable by a single operator with no tools in minutes.
• Lightweight and modular — sections connect to span any road width
• Non-lethal design — minimizes vehicle occupant injury while stopping the vehicle
• Effective on asphalt, concrete, rocky, sandy, and rough terrain
• Effective against run-flat protected vehicles, unlike spike systems
• Transportable by pickup truck, jeep, helicopter, plane, or boat
• Optional pivot/swing-gate system for emergency vehicle access
• Cited as a solution that could have prevented attacks in Columbus (2016), London, Charlottesville, Barcelona, New York (2017), Waukesha (2021), Magdeburg (2024), and New Orleans (2025)
Mifram FMB — Flat Modular Barrier
The FMB is a drive-over anti-ramming barrier that lies flat when vehicles are authorized to pass, then physically deploys to stop unauthorized vehicles. Multi-purpose, portable, and fast to deploy for urban and hot-zone environments.
• 222 kJ energy absorption — equivalent to 29 concrete blocks of 1 cubic meter each
• Drive-over folded design allows normal traffic flow when not engaged
• Transportable by plane, helicopter, small pickup truck, or boat
• Ground anchors available for further reduction of vehicle penetration distance
Mifram SMVB — Snap Mobile Vehicle Barrier
The SMVB is a concealable and camouflage-capable barrier system designed for law enforcement interdiction of threatening or fleeing vehicles. Can be electrically or mechanically activated by remote control from a safe distance.
• Concealed deployment — nearly undetectable until activated
• Electrical or mechanical remote activation
• Non-lethal at speeds up to 60 km/h with seat-belted occupants
• Suitable for border interdiction, checkpoint operations, and covert vehicle stops
4.2 Mifram — Official Security Pro USA Links
Mifram barriers are available in the United States through Security Pro USA. The following are direct product and reference links:
Security Pro USA — Full Mifram Collection: https://www.securityprousa.com/collections/mifram-security
Security Pro USA — Mifram Vehicle Barriers Overview Page: https://www.securityprousa.com/pages/mifram-vehicle-barriers
Mifram MVB (Modular Vehicle Barrier): https://www.securityprousa.com/products/mifram-mvb-modular-vehicle-barrier
Mifram FMB (Flat Modular Barrier): https://www.securityprousa.com/products/mifram-flat-modular-barrier-fmb
Mifram SMVB (Snap Mobile Vehicle Barrier): https://www.securityprousa.com/products/mifram-snap-mobile-vehicle-barrier-smvb
Security Pro USA — Blog: What Are Mifram Barriers & How Do They Work?: https://www.securityprousa.com/blogs/news/what-are-mifram-barriers-and-how-do-they-work
Security Pro USA — Blog: Modular Vehicle Barriers — A New Light on Mifram: https://www.securityprousa.com/blogs/news/modular-vehicle-barriers-a-new-light-on-mifram-s-bestseller
Mifram Security — Official Barriers Website: https://barriers.miframsecurity.com/
Mifram Security — Corporate Website: https://www.miframsecurity.com/
4.3 Delta Scientific Corporation
Delta Scientific, based in Palmdale, California, is the United States' leading manufacturer of crash-rated vehicle access control systems, engineering and manufacturing these products since 1974. Delta holds the Department of Homeland Security SAFETY Act Red Seal Certification — the highest DHS certification for anti-terrorism technology providers — and is listed on the DoD Anti-Ram Vehicle Approved Products List through 2031.
Delta Scientific barriers have never failed to neutralize an attacking vehicle in over 50 documented crash tests. Their systems are deployed at U.S. military bases, nuclear facilities, U.S. embassies, stadiums, airports, and corporate facilities worldwide.
Delta Scientific HD300 — High-Security Wedge Barrier
Delta's flagship high-security wedge barrier. Certified to stop a 15,000 lb vehicle at 50 mph, with a demonstrated ability for over 1 million operational cycles in independent testing.
• Available in hydraulic and electric versions
• Fast operation rates (0.5–1.5 seconds emergency deployment)
• K12/M50 certified — meets highest DoD and Department of State standards
• DHS SAFETY Act Certified (retroactive to 1984)
Delta Scientific MP5000 / MP100 — Portable Crash-Rated Barricades
Towable and modular portable barrier systems engineered for rapid deployment at events and temporary security operations.
• MP5000: Towable rapid-deployment barricade — setup in approximately 30 minutes by one operator
• MP100: Portable modular system, foldable design, M30/P3 in sets of 5, M50/P3 in sets of 10
• No excavation required — deploys on existing concrete, asphalt, or compacted soil
• Proven in post-New Orleans attack analysis as systems that could have stopped the Bourbon Street F-150 Lightning attack
Delta Scientific TB100 — Portable Bollards
Stackable portable bollard units highlighted after the 2025 New Orleans Bourbon Street attack as a solution for securing pedestrian corridors while maintaining emergency access.
• High-security, rapidly deployed portable bollards
• Allows pedestrian access while blocking vehicles
• Ideal for street fairs, parade routes, and pedestrian zones
Delta Scientific DSC1100 — K-8 Portable Hydraulic Barrier
A phalanx-type rising plate barrier mounted within inertial pods, deployable in high traffic locations within two hours. Pods weigh under 700 lbs unfilled and require no excavation.
• Certified K8/L1 and K4/L2 by the U.S. Department of State
• Stops a 15,000 lb vehicle at 40 mph
• Full automatic, remote, RF, card reader, and guard station control options
• Used by the Social Security Administration and U.S. Department of State
4.4 Delta Scientific — Official Links
Delta Scientific — Main Website: https://deltascientific.com/
Delta Scientific — High-Security Barricades Overview: https://deltascientific.com/high-security-barricades/
Delta Scientific — Portable Vehicle Barriers: https://deltascientific.com/high-security-barricades/portable-vehicle-barriers/
Delta Scientific — High-Security Wedge Barricades: https://deltascientific.com/high-security/wedge-barricades/
Delta Scientific — SAFETY Act Certified Products: https://deltascientific.com/safety-act-certified-products/
Delta Scientific — Solutions by Application: https://deltascientific.com/solutions/
Delta Scientific — DSC1100 K-8 Portable Barrier: https://deltascientific.com/product/portable-barrier-dsc1100-k-8-crash-rated/
SECTION 5: THE RIGHT APPROACH TO DEPLOYMENT
5.1 Principles of Effective Barrier Deployment
A crash-rated barrier sitting in a warehouse or placed in the wrong location provides zero protection. Effective deployment is governed by the following principles:
Principle 1: Coverage Without Gaps
Attackers exploit gaps. A perimeter barrier line with a single unprotected gap — even a narrow opening not designed for vehicular access — can be exploited. Every potential vehicle approach vector must be covered. Barrier planning must include:
• All road approaches, alleys, and service drives
• Sidewalk entries wide enough for a vehicle
• Parking lot adjacencies to event space
• Temporary or informal openings created by event setup
Principle 2: Match the Rating to the Threat
Not every approach requires the same barrier rating. A security planner must assess:
• Maximum attainable speed on each approach vector
• Maximum likely vehicle weight (accounting for EV profiles)
• Required penetration distance given crowd standoff
• Emergency vehicle access requirements
Where a 15,000 lb truck can achieve 50 mph approach speed, M50 barriers are required. A service alley where no vehicle can exceed 10 mph may be addressed with lighter passive barriers or manned control.
Principle 3: Do Not Compromise Emergency Access
One of the most common deployment errors is creating a sealed perimeter that blocks emergency response. Every deployment plan must include:
• Minimum two dedicated emergency ingress/egress lanes with swing-gate or retractable barrier systems
• Clearly marked and communicated to all responding agencies
• Pre-positioned emergency vehicles inside the perimeter when feasible
• Barrier personnel with authority and instruction to open emergency lanes on demand
Principle 4: Intelligence-Driven Barrier Positioning
Barriers should be positioned based on threat analysis, not aesthetics or convenience. Deploy heavier, higher-rated systems on primary approach vectors with the longest available run-up distances. Use supplemental, lighter systems for secondary approaches with natural speed constraints.
Principle 5: Train and Exercise Before Deployment
A barrier system deployed by untrained personnel is a liability, not an asset. Proper deployment training includes:
• Product-specific deployment drills achieving manufacturer-specified deployment times
• Emergency opening and closing drills under simulated stress
• Communication exercises between barrier teams and law enforcement command
• Annual tabletop and functional exercises incorporating vehicle threat scenarios
5.2 Deployment Matrix by Event Type
|
Event Type |
Recommended Barrier |
Minimum Rating |
Supplemental Measures |
|
Street Festival / Fair |
Modular portable barriers (Mifram MVB / Delta MP100) |
M40 on primary approaches |
TB100 bollards at pedestrian lanes; CCTV coverage |
|
Holiday Parade Route |
Modular barriers at all cross-street intersections along route |
M40 or M50 |
Law enforcement vehicle blocks at outer perimeter |
|
Open-Air Market (Recurring) |
Semi-permanent portable system or permanent bollards |
M40 minimum |
Designated staff vehicle lanes with swing-gate |
|
Concert / Stadium Event |
Fixed perimeter barriers + portable supplemental for event overlays |
M50 on stadium approach roads |
Towable barricades for temporary closures; Delta MP5000 or DSC1100 |
|
Critical Infrastructure (Permanent) |
Deep-foundation crash-rated bollards or Delta HD300 wedge |
K12 / M50 |
Hydraulic beam barriers for wide-span protection; integrated access control |
5.3 Common Deployment Failures to Avoid
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LESSON LEARNED: NEW ORLEANS 2025 The Bourbon Street attack involved the removal of permanent bollards for maintenance. No temporary replacement barriers were installed during the gap period. This is a textbook deployment failure — a known vulnerability left unaddressed. Whenever permanent barriers are taken offline for any reason, equivalent temporary certified systems must be immediately deployed as replacements. |
• Failure to plan for EV weights and acceleration profiles in barrier rating selection
• Deploying barriers without ensuring emergency vehicle access lanes
• Assuming law enforcement vehicle presence alone substitutes for certified crash barriers
• Using uncertified concrete Jersey barriers as the primary anti-vehicle measure
• Leaving maintenance gaps in permanent barrier coverage unaddressed with temporary replacements
• Failing to conduct pre-event barrier deployment exercises with actual equipment
• Using non-matching barrier systems that create vulnerabilities at connection points
SECTION 6: CONCLUSIONS AND RECOMMENDATIONS
6.1 Summary Assessment
Vehicle-ramming terrorism remains an acute and escalating threat to public safety at open venues across the United States. Homegrown extremists, radicalized through online channels, have demonstrated a consistent pattern of targeting open-air markets, parades, pedestrian promenades, and public festivals — venues that historically have been protected by little more than proximity to law enforcement.
The technology to protect these venues exists, is commercially available, and is proven in operational deployments across 5 continents. The gap is not in technology — it is in planning, procurement, training, and the institutional willingness to invest in perimeter hardening before an attack, rather than after.
6.2 Priority Recommendations
• Mandate crash-rated barriers at all permitted public events exceeding 500 attendees with any vehicle approach vector within 500 feet of the crowd.
• Adopt M40 or M50 as the minimum operational barrier rating standard, replacing legacy M30-only systems in high-risk deployments.
• Require that all jurisdictions maintain a pre-positioned stockpile of modular portable certified barriers sufficient to protect the three highest-risk recurring events in their jurisdiction.
• Establish a maintenance protocol that mandates equivalent temporary barrier replacement whenever permanent barrier systems are taken offline.
• Incorporate vehicle threat scenarios with named commercial barrier systems (Mifram MVB, Delta MP100/TB100) into annual public safety exercises.
• Engage Security Pro USA and Delta Scientific for technical assistance in barrier specification, deployment planning, and product training.
6.3 Key Resources for Public Safety Planners
Security Pro USA — Mifram Barrier Collection (USA Distributor): https://www.securityprousa.com/collections/mifram-security
Mifram Security — Vehicle Barriers (Official): https://barriers.miframsecurity.com/
Delta Scientific — Portable Vehicle Barriers: https://deltascientific.com/high-security-barricades/portable-vehicle-barriers/
Delta Scientific — SAFETY Act Certified Products: https://deltascientific.com/safety-act-certified-products/
Delta Scientific — Solutions by Application (Events, Stadiums, Airports): https://deltascientific.com/solutions/
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