Empowering our People
Building engineering, materials, structures and construction practice.
How can construction contracts create lasting skills? Explore Norway’s apprenticeship rules, EU social procurement guidance and a SamfunnsBro pilot model.
Reusing a steel beam is not simply a recycling decision. It is an evidence problem: provenance, testing, structural verification, logistics and defensible life-cycle accounting determine whether a reclaimed section can safely enter a new building.
Can wood fibre, hemp and mycelium insulation withstand Nordic moisture? Explore research, TEK17 requirements and a practical specification checklist.
Explore how artificial intelligence, BIM and digital twins can improve building design, construction, energy performance and lifecycle sustainability.
Why Europe’s green and digital transitions depend on rebuilding the relationships through which knowledge becomes capability SEO title: Europe’s Human Infrastructure in the Age of AIMeta description: Europe needs more than AI, universities and online courses. Discover how mentorship, apprenticeships, local learning networks and community knowledge can build the skills needed for the green and […]
Why the next transformation of construction will connect models, regulations, mat title:** From BIM to Construction Intelligence: The Living Building Meta description: Discover how BIM, digital twins, open standards, building logbooks, product passports and AI can transform buildings into living knowledge systems.Suggested URL slug: /from-bim-to-construction-intelligence-living-building/Primary keyword: Construction IntelligenceSecondary keywords: BIM digital twin, openBIM, digital building […]
Abstract Basalt—an abundant volcanic rock—has served construction for millennia as durable stone and aggregate, and more recently as a feedstock for mineral wool insulation and high-performance basalt fiber composites. This article provides a balanced, research-informed overview of basalt’s evolution as a construction material, its present-day relevance across infrastructure and buildings, and the technical and institutional […]
Abstract The prevailing paradigm of human construction has, for centuries, relied upon the extraction, refinement, and assembly of finite resources. This linear model—rooted in the intensive consumption of timber, stone, steel, and concrete—has exacted an unprecedented toll on the global biosphere, contributing to severe ecological degradation and accelerating anthropogenic climate change. In response to these […]
Introduction: Why the Glue Matters as Much as the Wood Mass timber is often celebrated as one of the most promising materials for lower-carbon construction. It is renewable, strong for its weight, prefabrication-friendly, and capable of storing biogenic carbon for decades when used in buildings. Yet there is a quiet contradiction at the heart of […]
Introduction: Why a Floor Can Matter More Than It Seems A floor is easy to overlook. It sits beneath the daily life of a building, carrying footsteps, furniture, dust, work, ceremony, and time. Yet in sustainable architecture, the floor is not a passive surface. It is a material decision with consequences: where timber comes from, […]
This case study illustrates the application of a digital twin in Norway’s building sector, addressing compliance with TEK17 and NS 3701 regulations. The approach ensures continuous monitoring of energy performance, offering improvements like energy savings and enhanced comfort. It aligns with future TEK26 goals for greater digital regulation and automatic compliance checks.
The architecture sector is shifting focus from operational to embodied carbon in building materials, driven by a new AI-powered sustainable materials platform. This platform integrates design, carbon metrics, and supply chain realities, reducing friction in material selection while optimizing for sustainability, cost, and performance. Its effectiveness will shape the industry as regulatory demands increase.
The article discusses the increasing importance of embodied carbon in concrete, especially as operational energy efficiency improves. It focuses on the shift towards low-carbon materials, like geopolymers and alternative binders, driven by European policies and market demand. Strategies for effective CO₂ budgeting in design and construction practices are highlighted for engineers.
Agentic AI has evolved from conversational systems to autonomous agents capable of performing significant operational tasks. This shift raises new risks related to governance, accountability, and cybersecurity. As organizations, especially in construction, adopt agentic AI, they must establish robust frameworks for oversight, transparency, and compliance to ensure safety and manage systemic risks effectively.
This post discusses the evolution of a future-ready timber home, highlighting the integration of AI in design, robot-assisted fabrication, and smart technology. It emphasizes faster construction, circular materials, and enhanced living spaces. The focus is on sustainability, efficiency, and adapting existing technologies to create intelligent, environmentally friendly homes for future generations.
Timber houses, once seen as traditional, are emerging as sustainable, high-performance building options. Modern timber construction utilizes renewable materials and advanced engineering, ensuring lower carbon footprints and better indoor environments. Fire safety, durability, and energy efficiency are addressed effectively, making wooden homes an appealing choice for future-oriented living and environmental responsibility.
The article discusses the evolution of building façades from simple weather barriers to advanced systems that integrate solar energy, climate management, and data communication. It highlights various high-tech cladding innovations, including photovoltaic panels, dynamic façades, bio-based materials, and sensor-rich technologies, emphasizing performance, sustainability, and long-term value in modern architecture.
This article examines the merging of nanotechnology and construction technology, highlighting their historical development and current trends. It discusses practical applications such as self-cleaning surfaces and smart materials, while addressing challenges like cost and health risks. The fusion points toward a sustainable future, emphasizing digital integration and enhanced materials for improved construction processes.
The evolution of hybrid panels and energy-injected cladding represents a pivotal shift in building design, enhancing energy efficiency and reducing carbon emissions. These multifunctional façades integrate energy generation and management within building envelopes, supporting sustainable architecture. Despite challenges like cost and complexity, their relevance grows in achieving decarbonization and occupant comfort.
Discover how sustainable construction evolves with AI and biotech, creating living, adaptive, self-healing buildings.
Advanced timber engineering, including CLT, LVL, and Dowel-Lam, redefines sustainable construction, merging traditional wood with modern technology. This article explores the history, applications, and future potential of these materials, emphasizing their strength, eco-friendliness, and role in creating resilient, innovative urban environments amidst growing environmental demands.
TEK17, Norway’s 2017 building regulations, prioritizes safety, accessibility, sustainability, and energy efficiency, aligning with EU standards. It promotes innovation through practical applications, including digital tools and AI integration. The framework facilitates compliance while encouraging creativity, serving as a vital component for constructing a sustainable future in Norway’s architecture.
Building homes in mountain environments combines serenity with ecological challenges due to climate change and population pressures. Sustainable construction practices can significantly reduce impacts, utilizing innovative techniques and materials. By embracing historical wisdom and modern technologies, the goal is to create resilient homes that honor nature and safeguard fragile ecosystems for future generations.
The article discusses rewilding architecture, highlighting its role in reviving urban environments by integrating native ecosystems into city designs. As cities face climate challenges and biodiversity loss, innovative green structures like green roofs and living walls offer environmental benefits. Successful projects demonstrate the potential for widespread adoption, fostering a greener future.
