Building Vertical: Modular in Urban High-Rise Construction

Author: Audree Grubesic. Updated: Jul 28, 2025. By: David Persons. Read time: 7 min.

Overview

Modular construction is being used for urban high-rise development. It aims to deliver faster timelines, better precision, and lower environmental impact.

The article says modular methods are especially relevant in dense cities, where labor, space, and sustainability pressures are high.

Market size and growth

• Global modular construction market value in 2024: $90.64 billion.
• Projected value by 2032: $145.56 billion.
• Projected CAGR: 6.1%.
• Projected value by 2035: $219.2 billion, with AI integration.

Reported performance advantages

• Completion time: 30% to 50% faster than traditional construction.
• Cost reduction: 20% to 50% lower than traditional construction.
• Construction waste: 10% of onsite waste compared with conventional methods.
• Waste disposal cost reduction: 97.54%.
• Embodied carbon: 47% lower.
• Transportation emissions: 35% lower.
• Noise reduction: 15 to 20 decibels.
• Onsite activity compressed by: 60% to 80%.
• Energy performance: 40% better than conventional towers.

Precision and factory production

Volumetric modules are built in climate-controlled factories. The article says this reduces weather delays and enables 24/7 production.

• Dimensional accuracy: 99.2% across structural components.
• Defect reduction: 80% lower than site-built construction.
• MEP systems are pre-integrated and pressure-tested before shipment.
• Laser scanning and AI visual inspection are used for quality checks.

Example: citizenM New York Bowery

• 21-story tower.
• Built from 210 modules manufactured in Poland.
• Corridor alignments were within 3 mm tolerance.

Design and configuration

Modern modular systems support mixed-use towers and customized layouts. The article describes parametric design and combinatorial algorithms for mass customization.

• Ten Degrees in Croydon: 1,075 modules across twin 38-story towers.
• Program mix: retail podiums, office mid-sections, and residential crowns.
• Unit variations were generated from 15 base templates.
• Steel frame modularity can support column-free spans up to 18 meters.
• Residential modules can include 120+ material options.

Examples of architectural integration

• Smile Harlem: hotel, co-working, and luxury residential stacking.
• CITI Tower in Croydon: undulating glass-fiber-reinforced concrete panels on standardized module frames.
• 1500 Mission Street in San Francisco: modules adjusted to preserve view corridors and daylight access.
• Brooklyn’s DUMBO: brick-clad modules with pre-aged finishes.

Sustainability claims

The article presents modular construction as a lower-waste, lower-carbon approach.

• J57 by BROAD Group: designed for disassembly with standardized bolted connections.
• Material reuse potential: 85%.
• Camp Hill development: 915 kgCO₂e/m² embodied carbon.
• RIBA benchmark mentioned: 800 kgCO₂e/m² for net-zero construction.

Challenges and constraints

• Only 12% of international jurisdictions have modular-specific high-rise regulations.
• 68% of developers cite quality skepticism as a barrier.
• Module width is often limited to 4.3 meters for road transport.
• Projects over 15% customization lose 80% of modular efficiency gains.

Logistics examples

• Tower B2 used just-in-time delivery for 1,000 module shipments by barge to Brooklyn’s Atlantic Yards.
• Road miles were reduced by 75%.
• Best practice mentioned: factory placement within 200 miles of urban centers.
• For projects over 30 stories, onsite micro-factories may handle final assembly.

Future outlook

• Robotics factory penetration: 35% today, projected over 80% by 2030.
• “Lights-out” manufacturing could cut labor costs by 50%.
• Digital twins may support real-time carbon tracking.
• Blockchain-based material passports are being piloted in Singapore’s 2025 modular housing initiative.

Implications for stakeholders

• Developers should freeze design early.
• Factory owners should use product-platform strategies.
• General contractors may need 30% upfront mobilization financing.
• Private equity may target vertical integration opportunities.

Conclusion

The article argues that modular high-rise construction is becoming a major urban building method. It cites faster delivery, lower carbon, and reduced cost as the main advantages.

It also states that modular systems could make up 35% of global high-rises by 2035.

Three key takeaways

• Accelerated urban development: modular high-rises enable 50% faster completion.
• Environmental superiority: construction waste is reduced by 90%, and lifetime carbon emissions by 47%.
• Economic resilience: labor costs are lowered by 25%, with fewer overruns.

FAQ highlights

• Modular construction is presented as a key part of the future of building.
• Typical module widths are around 14 to 16 feet, and lengths are 64 to 76 feet.
• Modular construction can be cheaper because factory work and site prep happen in parallel.
• Projects may be completed in a few weeks to 6 months, depending on size and complexity.

Sources and references

• Maximize Market Research
• Mordor Intelligence
• Verified Market Research
• GlobeNewswire
• Inkwood Research
• CEER PDF on modular construction efficacy