Brucha’s Specialty Voidless™ Facade panel:

FP•P•S

FPPS Insulated Metal Panel

One Panel. Every Trade It Replaces.

The Brucha FPPS panel is an insulated metal panel (IMP) system designed to replace traditional multi-layer wall assemblies by combining structure, insulation, air barrier, and exterior finish into a single, factory-engineered component.

Instead of coordinating multiple trades to build a wall in sequence, FPPS delivers a complete building envelope system in one installation.

One panel. Every trade it replaces.

Built-up wall assemblies require a lot of faith. Faith that the framing crew and the insulation sub and the air barrier applicator and the cladding installer all showed up at full capacity, in sequence, without gaps. When they do, you get the wall performance you spec'd. When they don't — and something always doesn't — you find out later, in a blower door test or a claim.

Brucha's FPPS insulated metal panel doesn't work that way.

Fire resistance through FM 4880 and NFPA 285. Thermal performance from R-13.2 to R-26.4 depending on thickness. Air infiltration tested to less than 0.01 cfm/ft² at the joint — the exact point where traditional assemblies leak. Structural integrity rated under ASTM E72 and FM 4881. All validated as a single, tested system. Not components. Not layers. A system.

For specifiers: The performance isn't contingent on field coordination. It's pre-engineered, UL-listed, and FM-approved. You're not hoping the assembly achieves the envelope — you're specifying something that already has.

For installers: Fewer trades. Fewer steps. The thermal, air, water, and fire performance is built into what you're hanging. You're not managing a sequence — you're completing an installation.

That's where the real cost story lives. IMPs compress labor, reduce callbacks, and accelerate the schedule. The material line-item may look different. The project economics don't.

Performance isn't something Brucha panels try to achieve in the field. It's something they arrive with.

Read the full article on the shortcomings of Built-Up!

Why Built-Up Walls Fail:

  • Multiple trades = variability

  • Interfaces = failure points

  • Performance = dependent, not guaranteed

What is a Voidless™ Facade Panel?

So glad you asked!. Brucha’s proprietary Voidless Core Technology means every panel comes off the line with absolute adhesion to the steel skins, and the foam is free of pockets, gaps, and voids that traditional manufacturers struggle to eliminate.

You can be sure that every panel we ship is manufactured to our industry-leading, stringent specifications. No exceptions, no excuses.

Testing & Certifications Category Test Standard Requirement / Result Sales Notes Fire (US) ASTM E84 Flame Spread <25; Smoke Developed <450 See UL Listing BLBT.R39080 FM 4880 (Walls) Class 1 Wall Assembly (unlimited height) See FM Approvals — approvalguide.com FM 4471 (Roofs) Class 1-60 Roof Assembly RoofNav 282789-0-0 Wind uplift: 135; Internal Fire: Class 1; External Fire: Class A; Hail: SH (Severe). See roofnav.app.fmglobal.com NFPA 259 Potential heat equal to or less than a successful NFPA 285 test Achieved through NFPA 285 result NFPA 285 Propagation and thermal limits as set in standard Tested with stack joint over window per NFPA 285, beginning with 2019 version Fire (Canada) CAN/ULC S138 As defined in test standard See UL Listing OERQ7.R39080 CAN/ULC S102 Flame spread <500 Structural ASTM E72 As defined in test standard Individual panel properties (ASTM E72) and wind uplift/suction (ASTM E1592) ASTM E1592 FM 4881 Class 1 rating for +80/−112 Zone TC See FM Approvals — approvalguide.com Thermal ASTM C518 R-Value @ 50°F (10°C) mean temperature: 100mm panel: R-13.2 120mm panel: R-15.9 140mm panel: R-18.5 160mm panel: R-21.1 180mm panel: R-23.8 200mm panel: R-26.4 75°F data available upon request Air/Water ASTM E283 Less than 0.01 cfm/ft² at 6.2 psf — "Dry" Joint (no field or wet seals) UL Listing ZHLL.R39859 ASTM E331 No observable infiltration at 12 psf — "Dry" Joint (no field or wet seals)

Take a look at the Testing and Certifications table above.

What this dataset is really showing is that the performance of Brucha’s insulated metal panels (IMPs) is not dependent on field execution—it’s pre-engineered, tested, and verified as a complete system. Across fire ratings, structural integrity, thermal performance, and air/water infiltration, the panels meet stringent ASTM, FM, UL, and NFPA standards as a unified assembly. You’re not looking at isolated component performance—you’re looking at system-level validation.

For example, fire resistance (FM 4880/4471, NFPA), thermal R-values (ASTM C518), and air/water tightness (ASTM E283/E331) are all achieved without relying on additional field-applied sealants or multi-step coordination. Even critical performance thresholds like air leakage (<0.01 cfm/ft²) are validated at the panel joint itself—the exact point where traditional systems tend to fail.

Now contrast that with a built-up wall assembly. In a traditional system, performance is fragmented across trades: framing, sheathing, vapor barrier, insulation, air barrier, and cladding—each installed by different crews, each introducing variability. The final performance is only as good as the weakest link, and coordination gaps are where inefficiencies—and failures—creep in. You’re effectively “hoping” that all layers align to achieve the intended outcome. With IMPs, that uncertainty is removed. The same engineered panel that delivers the thermal envelope also controls air, water, and structural performance. Installation becomes faster and more repeatable because it’s simplified—fewer steps, fewer trades, fewer failure points.

That’s where the real cost story emerges. While IMPs may appear more expensive upfront on a material basis, they compress labor, reduce coordination risk, accelerate timelines, and most importantly, deliver predictable performance out of the box. You’re not paying for perfection in the field—you’re buying it pre-manufactured. And that alignment between installation efficiency and performance reliability is what ultimately makes the system more cost-effective at the project level, not just the line-item level.

FAQ

Frequently Asked Questions

What is an insulated metal panel (IMP)?

An IMP is a factory-manufactured building component consisting of an insulating core bonded between two metal skins, designed to provide structural, thermal, and environmental performance in a single system.

How does FPPS reduce construction time?

By eliminating multiple installation steps and trades, FPPS allows contractors to complete the building envelope faster with fewer dependencies.

Are IMPs more expensive than traditional wall systems?

Material costs may be higher, but overall project costs are often lower due to reduced labor, faster schedules, and fewer performance-related issues.

Do FPPS panels require additional air or vapor barriers?

No. FPPS panels are engineered to provide air and moisture control within the panel system itself.

How does FPPS improve performance reliability?

Because performance is engineered and tested at the panel level, it does not depend on field-applied systems or multi-trade coordination.

System Performance (Not Component Performance)

FPPS panels are tested and validated as a complete system—not as individual materials expected to work together in the field.

Fire Performance

  • FM 4880 approved assemblies

  • NFPA 285 compliant systems

Thermal Performance

  • R-values ranging from R-13.2 to R-26.4 depending on thickness

Air Tightness

  • Less than 0.01 cfm/ft² at panel joint (ASTM E283)

  • Tested at the exact point where traditional assemblies typically fail

Water Penetration

  • No observable infiltration under ASTM E331 testing

Structural Integrity

  • ASTM E72

  • FM 4881

Because FPPS is installed as a single system, these performance values are preserved in the field—without relying on perfect sequencing or coordination across trades.

In Simple Terms

FPPS panels arrive on-site with performance already built in.

Instead of constructing a wall layer by layer and hoping everything aligns, installers attach a single panel that delivers the required thermal, air, water, and fire performance from day one.

What FPPS Replaces

Traditional wall assemblies rely on alignment across multiple trades and materials. FPPS eliminates that dependency.

A single FPPS panel replaces:

  • Exterior cladding systems

  • Continuous insulation layers

  • Air barrier systems

  • Vapor control layers

  • Multi-step façade assemblies

Performance is no longer assembled in the field. It arrives on-site already built into the panel.

Installation: From Sequencing to Completion

FPPS changes how walls get built.

Instead of managing a sequence:

  • Frame

  • Sheathe

  • Wrap

  • Insulate

  • Barrier

  • Clad

You install a single panel that completes the envelope.

For installers:

  • Fewer trades on site

  • Fewer steps to manage

  • Reduced installation time

  • Lower risk of rework

You’re not coordinating a system—you’re installing one.

FPPS vs. Built-Up Wall Assemblies

Built-up systems depend on execution.

FPPS depends on engineering.

Built-Up AssemblyFPPS PanelMultiple trades requiredSingle installation crewPerformance assembled in the fieldPerformance manufactured into the panelHigh coordination riskMinimal coordination requiredVariable outcomesPredictable, tested resultsExtended construction timelinesAccelerated installation

With traditional systems, performance is contingent.
With FPPS, performance is inherent.

Design Flexibility Without Added Complexity

FPPS panels support multiple surface profiles within a single panel system, allowing architects to achieve varied façade aesthetics without introducing additional materials or labor layers.

Design freedom no longer requires construction complexity.

The Real Cost Equation

On paper, FPPS may appear as a higher material cost compared to individual wall components.

At the project level, it tells a different story:

  • Reduced labor requirements

  • Shorter construction schedules

  • Fewer trades to coordinate

  • Lower risk of callbacks and remediation

  • More predictable project outcomes

You’re not paying to assemble performance in the field.
You’re specifying a system that already has it.