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Titan Panel System

One panel.
One engineered
building envelope.

Structure, insulation, air barrier and vapour barrier in a single engineered panel — MGO skins permanently bonded to a high-density EPS core under hydraulic press, then CNC-machined to your drawings.

Construction
MGO / EPS / MGO
Fire rating
ASTM E84 Class A
R-value options
R-23 – R-48
Panel Construction

Built from the inside out.

Every Titanwall MGO SIP is a five-layer assembly: two white MGO exterior skins, two layers of specialised structural glue, and a high-density EPS core between them. The result behaves as one solid structural unit, not as separate materials stacked together.

DETAIL / PANEL LAYERSEXPLODED
Exploded Titanwall MGO SIP: white MGO exterior skin, structural glue, high-density EPS core, structural glue, white MGO exterior skin
Tap a layer to lift it out.
Titanwall MGO SIP panels stacked in a large hydraulic press during the bonding process
Lamination

Why the bond will not fail.

The panels are not simply glued. Structural glue is applied evenly to the MGO skins and EPS core, the layers are assembled and placed in a hydraulic press, and extreme uniform pressure is applied across the whole panel until cured — forcing the adhesive deep into both surfaces.

01

Adhesive applied

Specialised structural glue is applied evenly to the MGO skins and the EPS core.

02

Assembled and pressed

The layers are stacked and placed into a hydraulic press.

03

Cured under pressure

Extreme, uniform pressure is applied across the entire panel until the bond has cured.

The result is a mechanical and chemical bond far stronger than field-applied adhesives — engineered for load-bearing applications, dimensionally stable, and with no swelling or shrinking the way OSB behaves.

Electrical Chases

Wiring runs built into every panel.

Every panel is manufactured with pre-burned circular electrical chases running vertically through the EPS core. Electricians pull wire through the channel without drilling framing members or modifying the structure — so the structural integrity of the panel is never compromised on site.

Cutaway of a Titanwall panel showing pre-burned circular electrical chases running vertically through the EPS core, spaced 8 inches from each edge and 16 inches on centre
Electrical Installation

Electrical without all the extra layers.

In conventional construction, electrical wiring is run through the stud cavities — and the interior then typically needs a separate poly vapour barrier before drywall.

With the Titanwall MGO SIP system, no separate polyethylene vapour barrier is required as part of the wall assembly. So installing outlets and switches doesn’t mean working around, cutting or repairing a layer of interior poly.

Wiring is routed through the pre-planned electrical chases in the EPS or GPS insulation core, electrical boxes are installed directly into the panel, and the interior is then finished to the project specifications.

  • No separate poly vapour barrier.
  • No stapling wire to every stud.
  • No conventional insulated stud cavities.
  • Fewer layers. A simpler wall assembly.
Electrical rough-in, conventional wall vs Titanwall
Conventional stud wallTitanwall MGO SIP wall
Wiring routeThrough the stud cavitiesPre-planned chases in the EPS or GPS core
Securing wireStapled to every studNo stapling to studs
InsulationInsulated stud cavitiesContinuous core, already in the panel
Vapour barrierSeparate poly — worked around, cut and repaired at outlets and switchesNo separate poly required
Cutaway behind an electrical outlet in a Titanwall MGO SIP panel: MGO sheathing skin, EPS insulation core on the left and GPS insulation core on the right, and the cable running through the chase into an electrical box set directly into the panel
Behind the Wall

What’s behind your outlet?

It may look like an ordinary electrical outlet when the building is finished — but what’s behind it is very different.

  1. 1MGO sheathing
  2. 23Continuous EPS or GPS insulation
  3. 4Integrated electrical chases
  4. 5Boxes installed directly into the panel

Shown with both core options side by side for comparison — each panel is made with one.

That’s the Titanwall difference: simplifying what’s inside the wall while improving what the wall is designed to do.

Technical Specifications

The numbers.

Panel specifications
Panel constructionMGO / EPS / MGO
Exterior face (both sides)White MGO sheathing
CoreHigh-density EPS
Panel thickness (standard)4.5″ / 6.5″ / 8.5″ / 10.25″
Standard panel sizes4′×8′ / 4′×9′ / 4′×10′ / 4′×12′ / 4′×16′
Panel weight (approx.)1.5 – 2.5 psf, varies by thickness
Acoustic performanceBase STC ~24 (unofficial)
Fire rating capability1 – 4 hour assemblies possible

Thermal performance

R-value, 6.5″ panel

Titanwall MGO SIP — GPS core R-29
Titanwall MGO SIP — EPS core R-23
Typical 2×6 wall R17.8

The SIP carries continuous insulation with reduced thermal bridging, so the full envelope acts as a thermal blanket. A stud wall interrupts its insulation at every framing member. Compare every thickness and core ↓

Fire Performance

Fire resistance is inherent to the material.

Magnum® MGO board is a fibreglass-reinforced, cementitious sheathing with no organic binders — so the fire performance is a property of the panel itself, not a coating added in a secondary layer.

CLASS
A
ASTM E84
CLASS A
  • Flame spread0 – 25 (very low)
  • Smoke developed0 – 450 (very low)
  • CombustibilityNon-combustible
  • Contribution to flame spreadNone
  • Rated assembliesSupports 1-hour+
R-Value

How much R-value do you really need?

When it comes to insulation, more isn’t always proportionally better.

R-value measures resistance to heat flow. As insulation is added, heat loss drops dramatically at first — but the benefit of each additional R-value becomes smaller as the wall reaches higher levels of insulation. That’s the idea behind diminishing returns.

So the goal isn’t simply to build the thickest wall possible.

The goal is to build the right wall for your climate, your building and the performance you want.

That’s where Titanwall gives you options.

Titanwall MGO SIP panels let you select the insulation and panel thickness that make sense for your project. EPS provides approximately R-3.8 per inch, while GPS graphite insulation provides approximately R-5.0 per inch — giving you the ability to achieve greater R-value without simply continuing to make the wall thicker.

Choose your R-value

Showing EPS core — select a core above. Same MGO skins, three panel thicknesses.

6.5 in165 mm
EPS core
R-23
GPS core
R-29
8.5 in216 mm
EPS core
R-29
GPS core
R-38
10.25 in260 mm
EPS core
R-37
GPS core
R-48

But R-value isn’t the whole story.

A high R-value is valuable — but how the insulation is installed matters too. Traditional framed walls contain studs, headers and other structural members that interrupt the insulation and create paths for heat to travel through the wall.

With Titanwall, the insulation core is continuous throughout the panel, helping reduce thermal bridging while the MGO skins form part of the complete panel system.

So when you’re comparing building systems, don’t look at the insulation number alone. Look at the entire wall.

The diminishing return of insulation

Higher R-values reduce heat loss — but the biggest gains happen at lower R-values.

The diminishing return of insulation Heat loss falls steeply as R-value rises from R-2 to about R-16, then flattens. Going from R-19 to R-30 reduces energy use by about 10 percent; an additional R-10 beyond R-30 reduces it by less than 5 percent. Titanwall panels span R-23 to R-48, on the flat part of the curve. 0%20%40%60%80%100%0R-10R-20R-30R-40R-50R-60R-70 TITANWALL PANELSR-23 to R-48 HEAT LOSS ≈10%R-19 → R-30<5%NEXT R-10 R-2R-4R-8R-16R-32R-64
  • The largest reduction in heat loss occurs at lower R-values.
  • From R-19 to R-30, energy consumption decreases by about 10%.
  • An additional R-10 beyond R-30 reduces energy use by less than 5%.
  • A well-designed, continuous insulation system like Titanwall MGO SIP helps you achieve high performance efficiently.

Illustrative model of whole-building heat loss; actual savings vary by climate, design and air-tightness.

Build for performance — not just a number.

A home in southern Alberta, a mountain cabin in Montana and a building in Arizona don’t experience the same conditions. That’s why we don’t believe every project needs exactly the same panel.

  • Southern Alberta
  • Mountain cabin, Montana
  • Arizona
  1. 01Where you’re building
  2. 02What you’re building
  3. 03The level of performance you’re after
  4. →The right Titanwall panelWe help determine the appropriate panel thickness and insulation option.

The question isn’t “How much insulation can we put in the wall?”

It’s “How do we build the wall to perform better?”

That’s the Titanwall approach.

Size the right panel for my project
A CNC router cutting a Titanwall MGO SIP panel in the High River facility
CNC Manufacturing

Precision. Efficiency. Consistency.

Panels are machined to the approved shop drawings rather than cut on site, which is what makes the envelope arrive straight, plumb, and ready to assemble in sequence.

Millimetre accuracy

In cutting and slotting.

CAD / BIM integration

From design straight through to production.

Automated production

Reduces human error.

High output

With fewer workers.

Rapid prototyping

Enables custom solutions.

Lower waste

Through automation.

Prefabricated

Labelled for fast assembly on site.

Consistent quality

The same panel, every run.

Installation

Base plate installation.

Proper base plate installation is essential to the structural integrity and performance of the building system. Step through it below.

DETAIL / BASE PLATE
Base plate assembly on a concrete footing: building line and plate lines snapped, two lines of butyl, pressure-treated sill plate set back half an inch, and anchor bolts with washers and nuts ½″BUILDING LINE
Components — tap to find
01

Prepare the surface

Make sure the concrete surface is smooth and clear of dust and debris.

02

Snap lines

Snap lines for your building and measure 1/2″ back for the plates.

Setback

The plate is set back 1/2″ from the building line.

03

Apply adhesive

Apply two lines of butyl or glue to the concrete.

04

Lay lumber

Lay the lumber on top of the butyl or glue and make sure it lines up with the lines.

Important

Ensure all lumber is pressure treated and suitable for the environment.

05

Install anchor bolts

Install anchor bolts from lumber to concrete and tighten the bolts.

Important
  • Anchor bolt spacing and size should follow engineering requirements.
  • Tighten nuts securely, but do not over-tighten.
  • Verify all plates are level and properly aligned before proceeding with wall panel installation.