High-Load Raised Access Floor System

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High-Load Raised Access Floor System
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Engineered for environments housing high-density server racks, power distribution units (PDUs), and industrial control consoles, this system integrates high-density core panels with cold-rolled steel welded pedestals. It delivers clear underfloor routing for HVAC, power, and cabling while withstanding severe static and dynamic load profiles without permanent structural deformation.
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High Load Raised Access Flooring Systems
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Description

High-Load Raised Access Floor System

 

The Fineco High-Load Raised Access Floor System provides structural underfloor plenum management and heavy-duty load support for mission-critical facilities. Engineered for environments housing high-density server racks, power distribution units (PDUs), and industrial control consoles, this system integrates high-density core panels with cold-rolled steel welded pedestals. It delivers clear underfloor routing for HVAC, power, and cabling while withstanding severe static and dynamic load profiles without permanent structural deformation.

 

Key Features

 

High-Density Structural Core: Utilizes high-density cementitious particle board or all-steel welded shell construction to resist point-load crushing.
Rigid Understructure Grid: Bolted stringer and pedestal assemblies lock panels into a rigid horizontal plane, eliminating lateral shifting under rolling loads.
Precision Height Adjustment: Heavy-gauge threaded steel rods and locking nuts allow precise finished floor height (FFH) leveling from 150mm to 2000mm.
Electrostatic Dissipation (ESD): Factory-applied High-Pressure Laminate (HPL) or conductive vinyl surface finishes maintain surface resistivity between 1 × 10⁶ and 1 × 10⁹ ohms.

 

System Structure

 

Floor Panels: Interchangeable modular panels (typically 600mm × 600mm) featuring protective electro-galvanized or epoxy-coated steel skins.
Pedestal Assembly: Comprises a base plate (min. 100cm²), a vertical threaded stud (M18/M20), a die-cast steel head with integrated stringer locating tabs, and a leveling nut.
Stringers: Snap-on or bolted tubular steel channels connecting pedestal heads to form a rigid grid, increasing lateral stability and uniform load capacity.
Gaskets: Conductive PVC/rubber padding adhered to pedestal heads to eliminate acoustic vibration and prevent metal-on-metal friction.

 

Technical Specifications & Test Validation

 

Parameter

Specification Details

Certified Standard / Test Method

Panel Dimensions

600 mm × 600 mm (Custom sizes available)

Manufacturing tolerance: ±0.2 mm

Standard Panel Thickness

30 mm / 35 mm / 40 mm

Dimensional verification per ISO 9001 QC

Core Materials

Cementitious Particle Board / Calcium Sulfate / Welded Steel Shell

Density: ≥ 1500 kg/m³ (Calcium Sulfate)

Concentrated Load Capacity

CISCA Grade 8 / Grade 10 (3.56 kN to 4.45 kN)

Third-Party Verified: SGS Test Report on file

Ultimate Load Capacity

≥ 11.1 kN

Tested per CISCA / EN 12825 procedures

Uniform Load Capacity

15 kPa to 22 kPa

Maximum permanent deflection < 0.25 mm

Finished Floor Height (FFH)

150 mm to 2000 mm

Adjustable via M18/M20 heavy-gauge steel rod

Surface Resistivity

10⁶ to 10⁹ ohms

Tested to EOS/ESD S7.1

 

Seismic Performance

 

Designed for deployment in seismic zones requiring rigorous structural integrity.
Lateral Load Resistance: Withstands horizontal shear forces through heavy-duty bolted stringer connections and structural seismic gussets.
Sway Mitigation: Incorporates diagonal bracing tubes anchored to the subfloor substrate, restricting excessive lateral displacement during seismic events.
Dynamic Response: Engineered to prevent panel dislodgement from pedestal heads during dynamic structural oscillations.

 

Typical Applications

 

Hyperscale Data Centers: Supports high-density server racks, blade servers, and heavy battery backup systems. (Recent Deployment: 12,000 m² Tier III Data Center Facility, Frankfurt, Germany).
Colocation Facilities: Provides modular adaptability for multi-tenant server halls requiring frequent reconfiguration.
Industrial Control & SCADA Rooms: Houses heavy automation consoles, electrical switchgear, and monitoring terminals. (Recent Deployment: Regional Power Grid Dispatch Control Center).
Cleanrooms & Semiconductor Labs: Controls particle generation and manages high-volume underfloor conditioned air distribution (laminar airflow).

 

Installation & Customization

 

Subfloor Preparation: Requires clean, leveled concrete slabs treated with anti-dust concrete sealer.
Installation Tolerances: Installed using laser leveling instruments; vertical height tolerance restricted to ±1.5 mm across a 5-meter span.
Custom Cutouts: Factory or site-machined cable grommets, brush tiles, and directional airflow grates (perforation rates from 15% to 55%) integrated directly into the layout.

 

Standards & Quality

 

Manufactured in compliance with international testing protocols:
CISCA (Ceiling & Interior Systems Construction Association): Performance specification for access floors.
EN 12825: Raised access floors standard (Classified by breaking load and deflection).
ASTM E84: Surface burning characteristics (Flame Spread Index 0, Smoke Developed Index ≤ 25).
ISO 9001: Quality management systems governing raw material sourcing, stamping, welding, and coating processes.

 

Manufacturing & Project Support

 

Production Equipment: Automated multi-station steel stamping presses, robotic MIG welding cells, and electrostatic powder coating lines.
In-House Testing: Every production batch undergoes destructive proof-load testing for concentrated, rolling, and ultimate load limits.
Engineering Support: Custom CAD layout generation, load distribution calculations, and on-site technical supervision packages for large-scale deployments.

 

Frequently Asked Questions

 

Q: What is the maximum concentrated load capacity of this system, and how is it tested?

A: Our heavy-duty panels support concentrated loads up to 4.45 kN (CISCA Grade 10) with a permanent deflection of less than 0.25 mm. Testing applies a 25 mm × 25 mm indenter foot at the weakest point of the panel (center edge or corner) per CISCA and EN 12825 guidelines, backed by certified third-party laboratory reports.

Q: How does the system handle rolling loads from heavy server racks during installation?

A: The system utilizes a bolted stringer grid framework combined with high-density cementitious or all-steel welded panels. This configuration distributes dynamic rolling loads (tested up to 4.5 kN rolling load with 10,000 cycles) across multiple pedestals, preventing localized panel collapse or stringer buckling.

Q: What is the difference between calcium sulfate and cementitious particle board cores for high-load applications?

A: Cementitious particle boards offer high initial compressive strength and excellent moisture resistance, making them cost-effective for standard data center environments. Calcium sulfate cores provide superior fire resistance (A1 non-combustible), higher density, exceptional acoustic damping, and higher ultimate load thresholds for extreme load conditions.

Q: Can this raised floor system integrate with existing seismic zone requirements?

A: Yes. For Seismic Zones 3 and 4, we supply heavy-duty seismic pedestal heads, heavy gauge stringers, and structural lateral bracing struts that tie the pedestal network directly to the structural slab, preventing torsional twisting and structural collapse.

Q: What are the lead times and packaging specifications for international project shipments?

A: Standard production lead times range from 20 to 30 days depending on volume and custom cutout requirements. Panels are stacked vertically on ISPM 15-compliant heat-treated wooden pallets, edge-protected with high-density foam, strapped with steel banding, and wrapped in waterproof stretch film for safe ocean freight transit.

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