Visky Ágoston is one of the BIM Managers of Vertex Pavilions, responsible for some of the most intricate BIM models that we have made. He is originally from the picturesque city of Cluj-Napoca, but is currently based in the vibrant cultural hub of Budapest. Having studied architecture, he finds inspiration in the blend of design and functionality that shapes our surroundings. Beyond the drafting table, he thrives on outdoor adventures, reveling in the beauty of nature. Sports, be it cheering for a team or actively participating, form an integral part of his life. The thrill of live music at concerts and gigs resonates deeply with him, and he has a penchant for immersing himself in the world of captivating movies. In essence, he’s someone who appreciates the balance between the structured world of architecture and the dynamic experiences that life has to offer.
Below you can read a brief interview with Ágoston.
When did you decide to study architecture? More importantly when did you start working with BIM and what made you decide to eventually become a BIM Manager?
Choosing to pursue architecture in high school was somewhat a natural decision for me. During that period, it appeared that all my areas of interest could be discovered in one way or another within the realm of architecture.
Over time, I recognized the evolving landscape of architectural tools and methods, leading me from traditional 2D drafting to the dynamic world of Building Information Modelling (BIM). Embracing BIM was a strategic move driven by its time-saving capabilities, efficiency in collaboration, and the convenience of consolidating diverse aspects of a project into one cohesive digital model. This transition not only aligned with the technological advancements in the field but also reflected my commitment to staying at the forefront of innovative practices within the realm of architecture.
If you could summerize BIM in 5 words or less, what would these words be and why?
Integrated Collaborative Efficient Digital Comprehensive
Collaborative, Efficient, Digital, Comprehensive, Integrated. These words capture the essence of Building Information Modeling (BIM) as it involves the seamless integration of diverse information, facilitates collaborative efforts among stakeholders, enhances efficiency through digital processes, and provides a comprehensive overview of a construction project.
Could you explain the process behind this technique and how did you end up working mainly with it?
Building Information Modeling (BIM) is a collaborative, digital process that involves creating a detailed 3D model of a building or infrastructure. This model incorporates comprehensive data about materials, components, and performance characteristics. BIM promotes collaboration among stakeholders, allows for simulation and analysis of various project aspects, and serves as a central reference point for construction management. Beyond construction, BIM supports the entire lifecycle of a structure, facilitating efficient facility management.
Working in Building Information Modeling (BIM) offers professionals numerous advantages, including increased efficiency, accuracy, and collaboration. BIM streamlines the design and construction process, reducing errors and fostering better communication among stakeholders. The technology contributes to cost savings by identifying issues early in the digital model, supports sustainability initiatives, and provides a visual representation for effective communication. BIM offers opportunities for continuous learning.
What do you like about BIM the most?
As a professional in the field, I find Building Information Modeling (BIM) to be a game-changer, offering remarkable efficiency and collaboration benefits. The visual representation in 3D enhances decision-making and communication.
What is it that you don't like about it / what would you call the biggest challenge when working with BIM?
Grappling with the learning curve of BIM tools and dealing with initial implementation costs pose challenges. Data standardization across different software platforms is an ongoing concern. The most pressing challenge lies in achieving industry-wide adoption and standardization, emphasizing the need for collaborative efforts to establish common practices across the diverse landscape of the Architecture, Engineering, and Construction (AEC) industry.
Could you tell me about your favorite project so far, that involved BIM?
I thoroughly enjoyed the surveying and BIM modeling project of the Wesselényi Castle in Jibou, a historically significant building dating back to 1778.
"Leveraging advanced surveying tools like Lidar scanning we conducted precise data collection for comprehensive as-built documentation."
The use of LiDAR scanning and the use of point clouds not only exemplified BIM’s error reduction capabilities but also provided a robust foundation for an accurate digital representation of this historic structure. Beyond immediate benefits the advanced surveying techniques, supported the entire lifecycle of the Wesselényi Castle by ensuring accessible and manageable information for future preservation efforts. Engaging in the modeling of such a culturally rich and architecturally significant building became a doubly gratifying experience, showcasing the power of cutting-edge surveying tools and BIM in preserving and celebrating our historical heritage.
Has BIM made your work easier? If so, in what ways?
It has significantly eased the work, the efficiency gains are notable, with streamlined design and construction processes, quicker iterations, and reduced manual effort. BIM’s emphasis on collaboration enhances communication and coordination among stakeholders. The 3D visualization aspect improves project understanding and facilitates effective communication. Error reduction is achieved by identifying and addressing issues in the digital model before construction starts. BIM’s holistic approach supports the entire project lifecycle, ensuring accessible and manageable information.
Its advantages include precise as-built documentation, efficient data collection, and a 3D visual context for surveyed projects. BIM promotes interdisciplinary collaboration, allowing surveyors to seamlessly work with other stakeholders. The integration of various data types improves the quality and depth of surveyed information, while change detection tools enable effective monitoring of project progress. BIM streamlines documentation processes, reducing paperwork and facilitating information sharing. Additionally, BIM supports quantification and analysis tasks, contributing to more informed decision-making in surveying projects.
How have you seen BIM evolve in the architectural field during your career?
Building Information Modeling (BIM) has undergone significant evolution in the architectural field. Initially embraced by larger firms, BIM has experienced widespread adoption across the globe, becoming a standard practice even in smaller practices. The evolution includes advancements in software functionality, improved interoperability among different platforms, the emergence of cloud-based solutions for enhanced collaboration, and integration with emerging technologies such as virtual reality and artificial intelligence.
BIM’s role has expanded to focus on sustainability aspects of projects, and regulatory mandates in some regions have accelerated its adoption. The field has also recognized the importance of BIM education and training, with institutions incorporating it into architectural curricula and professional development programs. The ongoing evolution of BIM reflects its dynamic response to technological advancements and the changing demands of the architectural industry.
How does BIM help in designing more sustainable and environmentally friendly buildings?
It significantly contributes to designing more sustainable and environmentally friendly buildings through its comprehensive and integrated approach. BIM enables energy performance analysis, allowing designers to optimize efficiency and reduce energy consumption. The platform facilitates informed material selection by considering factors like embodied energy and recyclability. Life Cycle Assessment (LCA) is supported, enabling an evaluation of the environmental impact throughout a building’s lifecycle. BIM assists in water efficiency analysis, daylighting, and natural ventilation simulation, promoting resource optimization. Collaboration among stakeholders ensures sustainability considerations are embedded in the design and construction process. BIM supports the pursuit of green building certifications and aids in regulatory compliance, providing a robust framework for creating buildings that prioritize environmental responsibility and sustainability.
How do you ensure the integrity and security of BIM data?
Ensuring the integrity and security of Building Information Modeling (BIM) data is paramount to safeguarding sensitive and critical information in the architectural and construction industry. This involves implementing robust measures such as encryption protocols, access controls, and secure authentication methods to protect data during storage, transmission, and access. Regular audits and monitoring systems help detect and address potential vulnerabilities. Collaboration platforms and cloud-based solutions should adhere to industry standards for data protection. Moreover, user education on best practices for data security plays a crucial role in maintaining the integrity of BIM data. In summary, a comprehensive and proactive approach, encompassing technological safeguards, monitoring, and user awareness, is essential for ensuring the integrity and security of BIM data throughout its lifecycle.
Where do you see the future of BIM heading in the next 5-10 years?
In the next 5-10 years, Building Information Modeling (BIM) is poised to see increased global adoption and standardization, with a continued emphasis on regulatory requirements. Interoperability among different BIM software platforms is expected to improve, facilitating smoother collaboration. BIM will likely further integrate with emerging technologies like augmented reality, virtual reality, and artificial intelligence, enhancing visualization and design analysis. Cloud-based solutions will continue to gain prominence for real-time collaboration and accessibility.
The evolution of BIM tools may include more sophisticated sustainability analysis, automation, and machine learning applications. Advanced simulation and analysis capabilities are anticipated, along with an expanded role in supporting the entire lifecycle of structures. Security measures will likely be enhanced to protect BIM data from cyber threats. The future of BIM points towards a connected, collaborative, and technologically advanced landscape in the Architecture, Engineering, and Construction (AEC) industry.
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