From Design to Delivery: Why BIM Skills Are Becoming Essential Across the AEC Workforce
by Roy Aniruddha, Founder and Chairman, TechnoStruct Group
Building Information Modelling (BIM) has evolved far beyond its early use as a tool for creating three-dimensional building models. Today, it serves as a shared digital environment that connects design, construction and facility management, enabling project information to remain coordinated throughout a building’s lifecycle.
India’s Economic Survey 2023–24 highlighted BIM’s potential to improve infrastructure delivery, citing the possibility of reducing construction costs by up to 30% and addressing delays in complex infrastructure projects. A study published in June 2026 examined the integration of BIM with Primavera P6, a project scheduling tool, in an Indian public housing project. The researchers reported recovering 217 days against a delay scenario and estimated savings of ₹9.12 crore. Although these findings are specific to the project studied, they illustrate the potential of coordinated digital workflows to improve project planning and cost control.
Realising this potential requires more access to technology. The industry needs professionals who understand how to apply BIM across the entire project lifecycle.
Why BIM Skills Matter Now
BIM’s value begins at the design stage, where architects, structural engineers and mechanical, electrical and plumbing (MEP) teams must coordinate their work. Each discipline contributes specialized information, often through tools such as Autodesk Revit. Coordination platforms such as Navisworks help teams combine models and identify potential conflicts before construction begins.
Consider an MEP duct routed through a structural beam. Identifying this conflict during design allows the teams to resolve it before work reaches the site, where changes can lead to rework, additional costs, and delays.
A 2025 study published in the Journal of Construction in Developing Countries examined BIM-enabled clash detection in a building project. Researchers identified 65 relevant clashes and estimated that resolving them would require MYR 60,323.80 in additional expenditure. The findings illustrate how early identification of design conflicts can help teams assess potential costs and make informed decisions before construction progresses. However, these estimates are specific to the project and should not be interpreted as a general measure of savings across the industry.
Taking the Digital Model to the Construction Site
Once construction begins, the BIM model becomes a valuable resource for site teams. Integrating the model with project schedules creates 4D BIM, linking project activities to time and sequencing. Adding cost and quantity information introduces 5D BIM, supporting estimation, budgeting, and cost monitoring.
Site engineers and supervisors can use coordinated models to review design information, raise queries, assess progress, and plan upcoming activities. When the model, schedule, and site information remain aligned, teams can identify discrepancies earlier and coordinate their work more effectively.
The Delhi–Meerut Namo Bharat corridor offers an important Indian example of BIM adoption in transport infrastructure. According to the National Capital Region Transport Corporation (NCRTC), BIM is being used to coordinate architectural, structural and building-services information for Namo Bharat stations.
In August 2026, the Ministry of Housing and Urban Affairs reported that the corridor had become fully operational and had carried more than 3.8 crore passenger journeys since operations began, with punctuality exceeding 99%. These operational figures do not establish BIM as the sole cause of the project’s performance. Rather, the corridor demonstrates the growing application of digital engineering in major Indian infrastructure projects.
BIM’s Role Beyond Construction
BIM’s value does not end when a project is handed over. The information developed during design and construction can support facility management, maintenance planning, and the long-term operation of an asset.
A common data environment (CDE) provides a shared digital space for managing project information, including models, drawings, approvals, and revisions. ISO 19650 provides an internationally recognised framework for organising and managing information throughout the built asset lifecycle.
When project information is structured and maintained consistently, facility management teams can receive more useful records for future maintenance and operational decisions. Achieving this requires teams to consider information requirements from the outset rather than treating handover documentation as a final administrative task.
The Workforce Skills Gap
Technology is becoming more accessible, but developing professionals who can apply it effectively takes time.
Autodesk’s 2025 report on BIM in India, drawing on Deloitte research, found that 30% of Indian firms reported shortages in BIM and virtual design and construction (VDC) capabilities. The report also indicated that 82% of firms were undertaking internal upskilling initiatives, while 72% had partnered with academic and skilling institutions to develop training aligned with emerging industry requirements.
These findings point to an important challenge: adopting digital tools is only one part of the transformation. Organizations also need people who can translate digital information into practical project decisions.
Employers increasingly need professionals who understand both the software and the construction processes behind it. Proficiency in Revit and Navisworks provides a useful foundation, but effective BIM practice also requires knowledge of construction methods, building codes, quantity take-offs, information management and coordination procedures.
Professionals must understand how to organise project information, follow applicable standards and work within a CDE. They must also communicate effectively across disciplines, since a change made by one team can affect the work of several others.
Ultimately, the skills gap extends beyond software proficiency. It includes the ability to interpret information, apply engineering judgement, anticipate the consequences of design changes and collaborate across the project lifecycle.
There is also a cultural dimension to consider. BIM delivers greater value when teams resolve design decisions, define responsibilities and establish information requirements early. In projects where decisions remain open until construction is underway, the benefits of digital coordination can be harder to realise. Successful implementation therefore requires changes in planning and collaboration, not simply the introduction of new tools.
Building Skills That Translate into Practice
Industry bodies and professional institutions can play an important role in strengthening BIM capability. The India BIM Association supports industry engagement around BIM standards, education and policy, while organisations such as RICS South Asia provide professional learning opportunities in the built environment.
For construction firms, implementation can begin with a live project and a clearly defined BIM Execution Plan. This document establishes how BIM will be implemented, who is responsible for specific tasks, what information must be delivered, and how teams will coordinate their work.
Pairing early-career professionals with experienced BIM coordinators can help bridge the gap between classroom learning and project requirements. Involving site engineers, project managers, and other stakeholders in training is equally important, as it builds confidence in the model and encourages its practical use.
Training programmes must therefore extend beyond software demonstrations. They should include hands-on work with coordinated models, interdisciplinary collaboration, scheduling, quantity estimation, and project information management. This approach helps professionals understand not only how to operate digital tools, but also how to apply them to real construction challenges.
From Digital Adoption to Workforce Readiness
As BIM becomes more widely integrated into design, construction and asset operations, the industry challenge is no longer simply to adopt digital technology. It is to develop the people and processes required to use that technology effectively.
The future of the AEC workforce will depend on professionals who can connect design intent with construction realities, coordinate information across disciplines, and make informed decisions throughout a project’s lifecycle. Building this capability requires practical training, industry experience, and a stronger culture of collaboration.
BIM’s true value lies not merely in the model itself, but in the people who know how to turn its information into better decisions. Bridging the skills gap will be essential to carrying reliable project information from design to delivery and beyond.
















