Design Assist by Mitrex

A collaborative approach to building better

Through a structured, step-by-step process, our Design Assist services bring together architects, engineers, and project stakeholders to co-develop high-performance facades.

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Our team supports everything from site analysis to prototyping, prefabrication, and on-site execution—with technical rigor and design flexibility at every stage.

Why BIPVs

Why should architects design with BIPVs?

Mitrex Building-Integrated Photovoltaics (BIPV) offers a robust design-assist process to seamlessly integrate sustainable energy solutions into architectural projects. Collaborating with architects, engineers, and contractors, Mitrex ensures BIPV aligns with aesthetic, functional, and performance goals. Here’s why Mitrex is the ideal partner for BIPV design-assist:

Tailored aesthetics

Custom solar facades, glass, and railings in any color—seamlessly blending design with energy generation.

Efficient
material use

Replaces conventional cladding or roofing, cutting material costs while generating energy.

Design & cost savings

Design assist streamlines workflows and reduces overall design costs.

Energy
optimization

Provides detailed energy output projections, ensuring reduced energy bills and grid dependency.

Incentive
support

Helps navigate government incentives and green financing.

Sustainability

LEED-supporting, meeting energy targets, and carbon-neutral panels that offset emissions.

Technical
support

Includes shop drawings, structural analysis, and full code compliance.

Flexible applications

Available in varied sizes, colors, and finishes—ideal for new builds or retrofits.

Proven performance

Backed by 25-year warranties and installation support for on-time execution.

The Process

Initial consultation

Engage with architects and stakeholders to define project goals, challenges, and design vision.

Stakeholder engagement

  • Meet with architects, developers, general contractors (GCs), and owners to discuss project requirements.
  • Identify aesthetic preferences, performance targets, regulatory constraints, and sustainability objectives.

Site & building assessment:

  • Assess existing building conditions (if applicable) and site-specific challenges such as structural limitations, environmental factors, and budget constraints.
  • Clearly document regulatory constraints and sustainability objectives.

Project goals definition:

  • Define high-level goals, including thermal bridging minimization, material choices, and project timeline alignment.
  • Determine potential integration points for Mitrex BIPV and Cladify systems.
Technical deliverables:
Site analysis summary, design brief

Solution exploration

Integrate Mitrex BIPV or Cladify cladding systems early in schematic design to align building envelope solutions with performance targets and architectural vision.

Material & design evaluation:

  • Propose Mitrex and Cladify materials including BIPV panelization systems and prefabricated wall systems tailored to the project’s aesthetic and performance requirements.
  • Evaluate various cladding types, surface textures, and custom material options to align with the architectural vision.
  • Provide conceptual renderings and material samples for stakeholder feedback.

Energy demands:

Assess the project’s potential for solar energy generation based on building orientation, available surface area, and local solar exposure.

System analysis:

Analyze the suitability of Mitrex and Cladify systems—from rainscreen cladding to prefabricated wall panels—to ensure maximum project profitability while preserving the design intent.

Cost & budget analysis

Conduct cost-benefit analysis of proposed materials and their impact on installation efficiency, labor costs, and long-term maintenance.

Technical deliverables:
System recommendation matrix, solar energy potential analysis

Collaborative design development

Work with the team to create concepts integrating our products into the building envelope.

Team collaboration:

  • Work closely with architects, structural engineers, and consultants to ensure smooth integration into the building envelope.
  • Address connection details, implementation strategies, and compatibility with adjacent systems.

Design execution:

  • Develop detailed CAD and Revit models, including layout and assemblies. Conduct design iterations based on client and engineering feedback to ensure a balance of performance, safety, and aesthetics.
  • Identify potential design and constructibility challenges early to prevent costly rework.
Technical deliverables:
CAD/Revit details, connection drawings, integrated facade layouts

Engineering & energy analysis

Perform structural, energy, and compliance assessments to validate envelope systems.

Structural & code compliance:

  • Conduct structural load calculations to confirm system feasibility and building impact.
  • Assess fire resistance, wind load compliance, seismic impact, and waterproofing.
  • Coordinate with local regulatory bodies and consultants to address building code compliance for both BIPV and cladding envelope systems.

Energy modeling & performance

  • Perform energy modeling simulations to estimate BIPV power generation and verify compliance with sustainability targets (e.g., LEED, net-zero goals).
  • Make necessary adjustments based on engineering findings and stakeholder feedback.
Technical deliverables:
Structural calculations, energy modeling reports, code compliance checklists

Prototyping & testing

Develop mock-ups, conduct performance tests (e.g., fire, wind, thermal performance), and refine designs.

Mock-Up development:

Create full-scale prototypes or mock-ups for stakeholder review and approval.

Performance testing, such as:

  • Fire testing including CAN/ULC S135, NFPA 285, EN 13501-1, etc.
  • Wind load compliance and structural load testing for highrise applications.
  • UV resistance and durability assessments for long-term exposure.
  • Thermal performance evaluations to minimize thermal bridging.

Refinement:

Use test results to refine design details and improve constructibility. Provide clients an opportunity to visualize the final product and make last-minute adjustments.

Technical deliverables:
Performance test reports, QA reviews

Prefabrication & logistics planning

Design preassembled systems to simplify installation and reduce costs.

Prefabrication:

  • Utilize factory prefabrication to produce modular BIPV or Cladify panels with precise quality control.
  • Preassemble components to reduce on-site labor and installation time.

Installation & delivery planning:

  • Develop a logistics and installation plan or work with existing plans to tailor to the site constraints (e.g., urban settings, restricted access).
  • Coordinate with construction teams to ensure just-in-time delivery.
  • Optimize packaging and transportation to minimize material damage and site waste.
Technical deliverables:
Factory QC documentation, logistics plan, panel maps

Implementation support

Provide detailed documentation, on-site assistance, and final adjustments.

Installation resources

  • Provide detailed installation manuals, technical documentation, and construction drawings.
  • Deliver on-site training for contractors and installers to ensure correct handling and placement.

Quality assurance

Perform QA inspections and assist with system commissioning, including electrical connections and energy validation. Address last-minute refinements for full project completion.

  • Perform QA inspections to verify alignment and performance.
  • Assist with final system commissioning, including electrical connections and energy performance validation.
  • Address any last-minute adjustments or refinements needed for full project completion.

Technical deliverables:
Site installation guide, QA checklist, commissioning certificate

Real-world Design Assist projects

Binghatti Mercedes-Benz Residences, Dubai

High-End Residential
  • Architect:

    Silverstone

  • Developer:

    Binghatti Developers, Mercedes-Benz

  • Engineer:

  • Engagement Step:

    Design Development

Key design highlights include:

  • Optimized panelization to ensure a uniform layout across the entire tower, enhancing visual continuity and reducing complexity.
  • The iconic Mercedes-Benz logo was carefully incorporated into the façade design by replicating the proportional geometry of its hexagonal form, achieving brand alignment with architectural precision.
  • Dynamic light panel integration was engineered to allow even light diffusion through BIPV panels, ensuring both performance and visual consistency across the illuminated façade surfaces.
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Project details

Key design highlights include:

  • Optimized panelization to ensure a uniform layout across the entire tower, enhancing visual continuity and reducing complexity.
  • The iconic Mercedes-Benz logo was carefully incorporated into the façade design by replicating the proportional geometry of its hexagonal form, achieving brand alignment with architectural precision.
  • Dynamic light panel integration was engineered to allow even light diffusion through BIPV panels, ensuring both performance and visual consistency across the illuminated façade surfaces.
Challenge
  • Create an iconic, electrified building aligned with Mercedes’ EQS electric vehicle brand.
  • Required fire-rated solar solutions (CAN/ULC S135, NFPA 285) compliant with high-rise regulations. All while maintaining the Mercedes branding and image in the building design.
  • Integration of LED lighting into the EQS logo on the BIPV façade to match their branding.
Solution
  • Mitrex worked with the architect, Mercedes marketing team, and GC to develop a BIPV-integrated cladding envelope system incorporating LED lighting and their brand colors.
  • Dynamic light panel integration was engineered to allow even light diffusion through BIPV panels.
  • Provided full support: initial design, connection details, local rep for installation.
  • After initial design, we arranged factory tours, performance mock-ups, and fire testing to meet project requirements. We also modified our fire test reports to comply with product modifications for the project.
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Santander Tower, Florida

Mixed Use High-Rise
  • Architect:

    Handel Architects

  • Developer:

  • Engineer:

  • Engagement Step:

    Design Development

Slab edge cover details were simplified to facilitate smooth installation using climbers. Mounting brackets were prefabricated on-site, and the module connection system was designed for quick and simple on-site assembly, minimizing potential detailing issues. The color and pattern of the panels were carefully selected to enhance energy generation while simplifying electrical connections.

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Project details

Slab edge cover details were simplified to facilitate smooth installation using climbers. Mounting brackets were prefabricated on-site, and the module connection system was designed for quick and simple on-site assembly, minimizing potential detailing issues. The color and pattern of the panels were carefully selected to enhance energy generation while simplifying electrical connections.

Challenge
  • Goal: Incorporate on-site renewable energy using rooftop solar panels.
  • Traditional solar solutions did not meet fire testing and wind load compliance under NOA regulations.
  • Customer reached out to us to use our honeycomb panels, and then realized they can do a lot more than just traditional rooftop solar.
  • Difficulties in supporting large-format panel modules and ensuring efficient installation.
  • Exterior-only installation access posed scheduling and logistical constraints.
  • Slab edge details complicated installation using climbers.
Solution
  • Mitrex introduced honeycomb solar panels and later BIPV cladding as an alternative.
  • Engaged in design assist to develop connections and implementation strategies, ensuring successful BIPV integration.
  • Connection details were designed to meet NOA standards, while panel sizing and layout were optimized to enhance solar energy generation.
  • Crown details were streamlined and the Cladify system was integrated, allowing for a one-step installation process and support for large-format panels.
  • Slab edge covers were simplified, and prefabricated mounting brackets enabled easier and faster installation.
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Aquabella Tower on Lake Ontario

Residential Condo
  • Architect:

    3XN / Kirkor Architects and Planners

  • Developer:

    Tridel, Hines

  • Engineer:

  • Engagement Step:

    Schematic Design Stage

To enhance construction efficiency, a pre-panelized system was adopted:

  • Balcony fins and slab covers were delivered as pre-assembled units, eliminating the need for conventional structural stud substrate backing.
  • For the building’s intricate nine-color slat panel arrangement, the Cladify system reduced over 8,500 individual slats to just 944 pre-assembled panels, significantly accelerating installation and improving finish consistency.
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Project details

To enhance construction efficiency, a pre-panelized system was adopted:

  • Balcony fins and slab covers were delivered as pre-assembled units, eliminating the need for conventional structural stud substrate backing.
  • For the building’s intricate nine-color slat panel arrangement, the Cladify system reduced over 8,500 individual slats to just 944 pre-assembled panels, significantly accelerating installation and improving finish consistency.
Challenge
  • Owner sought to incorporate four different porcelain colors into the façade with minimal glare.
  • Initial installation plan involved cutting and placing each of the 8,500 pieces individually, leading to a $5–6 million budget overrun.
Solution
  • Cladify proposed a preassembled panel system to reduce installation time and material costs.
  • This reduced the 8,500 individual slats to just 944 pre-assembled panels.
  • Fins and preassembled panels were laminated and prefabricated in the factory.
  • Client saved $4–5 million through reduced installation time and cost efficiencies.
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591 Finch West

Residential Rental Mid-Rise
  • Architect:

    Paradigm Architecture + Design

  • Developer:

    Sionito Group

  • Engineer:

  • Engagement Step:

    Schematic Design Stage

Mitrex addressed these challenges by introducing Building-Integrated Photovoltaic (BIPV) technology in customizable colors and textures, seamlessly blending energy generation with design. Through a collaborative design-assist process, multiple color and texture options were proposed for client selection. 

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Project details

Mitrex addressed these challenges by introducing Building-Integrated Photovoltaic (BIPV) technology in customizable colors and textures, seamlessly blending energy generation with design. Through a collaborative design-assist process, multiple color and texture options were proposed for client selection. 

Challenge
  • Goal: Achieve 30% of the building’s electricity consumption from on-site renewables.
  • Urban site with limited roof space and no excess land.
  • Aesthetics: Traditional solar panels on the exterior facade would create a “black box” effect, negatively impacting the design.
Solution
  • Mitrex introduced BIPV technology in customizable colors and textures.
  • Energy goals were met while maintaining design integrity. During the design assist process we proposed multiple variations of colours and textures for the client to decide.
  • Mitrex collaborated with Cladify to complete other exterior elements (e.g., aluminum flashing).
  • Having a single contractor for the entire building envelope streamlined logistics and coordination.
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Western University Entrepreneurship & Innovation Centre

Educational Building University
  • Architect:

    Perkins & Will

  • Developer:

    Hayman Construction

  • Engineer:

  • Engagement Step:

    Design Development

The lightweight nature of the system enabled 23” deep triangular fins unsupported, anchored only by two 16-gauge studs. The envelope achieved its targeted effective R-value through an 8” outboard insulation layer, thermally broken brackets, and a continuous thermal control plane aligned with the IGUs, ensuring installation precision and eliminating site-based fabrication errors.

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Project details

The lightweight nature of the system enabled 23” deep triangular fins unsupported, anchored only by two 16-gauge studs. The envelope achieved its targeted effective R-value through an 8” outboard insulation layer, thermally broken brackets, and a continuous thermal control plane aligned with the IGUs, ensuring installation precision and eliminating site-based fabrication errors.

Challenge
  • Large limestone fins projecting 3–4 feet from the façade.
  • Concerns over weight of stone on high-rise, connections, and installation logistics.
  • Meeting the targeted R-value.
  • Tight project timeline.
  • Avoid excessive structural weight.
Solution
  • Preassembled lightweight panel systems reduced weight concerns and sped up installation.
  • Custom modules integrated an internal chassis and flat-plane mounting clips, eliminating the need for bulky boxed-out structural framing.
  • The lightweight nature of the system enabled 23” deep triangular fins unsupported
  • The envelope achieved its targeted effective R-value through an 8” outboard insulation layer, thermally broken brackets, and a continuous thermal control plane aligned with the IGUs.
  • Client saved $3–4 million on wall assemblies no longer needed due to the new system.
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Chinook Hospital

Healthcare Building
  • Architect:

    Reimagine Architects

  • Developer:

    Alberta Health Services

  • Engineer:

  • Engagement Step:

    Design Development

The primary challenge was to meet the architect’s strict design vision, which included a specific color match to a GFRC sample and large-format panels up to 53 x 90 inches. In parallel, the system needed to be cost-competitive, maintenance-light, and capable of meeting energy performance targets for Alberta Health Services’ sustainability strategy.


Mitrex collaborated closely with Reimagine Architects to develop a custom color solution that balanced solar efficiency with design intent. The result was a 58 kW BIPV system producing approximately 60,000 kWh annually—the equivalent energy consumption of ten residential homes.

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Project details

The primary challenge was to meet the architect’s strict design vision, which included a specific color match to a GFRC sample and large-format panels up to 53 x 90 inches. In parallel, the system needed to be cost-competitive, maintenance-light, and capable of meeting energy performance targets for Alberta Health Services’ sustainability strategy.


Mitrex collaborated closely with Reimagine Architects to develop a custom color solution that balanced solar efficiency with design intent. The result was a 58 kW BIPV system producing approximately 60,000 kWh annually—the equivalent energy consumption of ten residential homes.

Challenge
  • Replace a failing facade without compromising budget or sustainability targets.
  • Match a precise GFRC reference color while maintaining solar output of at least 12 W/ft².
  • Deliver oversized panel dimensions (up to 47 x 90 inches) to reduce joint lines and maintain a monolithic appearance.
  • Coordinate across multiple stakeholders in a retrofit environment, including structural, electrical, and installation teams.
Solution
  • Custom color-matched BIPV panels developed through extensive sampling and optimization—yielding 25% more solar output than the initial color request.
  • Large-format panels engineered to integrate into a standard rainscreen system, reducing structural changes and enabling efficient installation.
  • Full design assist services provided, including energy modeling, ROI analysis, and mock-ups.
  • Collaborated with Pronghorn Controls for streamlined retrofit implementation with minimal disruption to hospital operations.
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The Myron and Berna Garron Health Sciences Complex - SAMIH

Educational Building University
  • Architect:

    MVRDV, Diamond Schmitt Architects

  • Developer:

    University of Toronto

  • Engineer:

  • Engagement Step:

    Schematic Design Stage

Cladify collaborated closely with Mitrex to optimize panel size, finish, color, and solar power equipment integration. All decisions balanced aesthetic requirements with photovoltaic performance goals, enabling the solar-active façade to meet energy benchmarks without compromising architectural intent.

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Project details

Cladify collaborated closely with Mitrex to optimize panel size, finish, color, and solar power equipment integration. All decisions balanced aesthetic requirements with photovoltaic performance goals, enabling the solar-active façade to meet energy benchmarks without compromising architectural intent.

Challenge
  • Target of 20% on-site renewables.
  • Architect required specific colors, patterns, and panel layouts.
Solution
  • A system size of 632 kW, producing about 420,000 kWh per year, meeting the 20% renewable energy generation requirement for the building.
  • Worked with the team for over a year to finalize color and panel layouts.
  • Engineered solar-integrated roofing and cladding to meet energy goals.
  • Ensured alignment with EllisDon’s construction schedule and budget.
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