BIM for Ukraine's Reconstruction

EU EXPERIENCE IN DIGITAL TRANSFORMATION THROUGH BIM:LESSONS FOR UKRAINE

PROJECT GOALS AND OBJECTIVES

  • Enhance the competitiveness and employability of young graduates by incorporating a European dimension into their education;
  • Increase interest in understanding the core principles of applying BIM technologies in practice for executing new construction projects, as well as renovation, reconstruction, and maintenance projects for buildings destroyed or damaged due to large-scale military actions in Ukraine.

TOTAL DIRECT LOSSES TO UKRAINE'S INFRASTRUCTURE DURING THE WAR

  • Total damages: $0 billion
  • Housing stock: $0 billion
    236,000 buildings destroyed or damaged, including 209,000 private homes, 27,000 apartment buildings, and 600 dormitories.
  • Transport infrastructure: $0 billion
    Over 26,000 kilometers of roads damaged or destroyed, railway infrastructure losses at $4.3 billion, ports at $0.85 billion, aviation at $2 billion.
  • Energy sector: $0 billion
    Kakhovska and Dniprovska HPPs completely destroyed, Trypilska and Zmiivska TPPs damaged, key generation facilities and high-voltage substations affected.
  • Industry and enterprises: $0 billion
    Approximately 500 large and medium-sized private and state enterprises damaged or destroyed.
  • Agribusiness sector: $0 billion
    Over 130,000 units of agricultural machinery lost, 4 million tons of grain storage, and 16,000 hectares of perennial plantations destroyed.
  • Education sector: $0 billion
    Over 4,000 educational institutions damaged or destroyed.
  • Healthcare sector: $0 billion
    1,554 medical facilities damaged.
  • Digital infrastructure: $0 billion
    In de-occupied areas, network destruction reached 100%, with thousands of base stations destroyed.
*According to the Kyiv School of Economics (KSE), November 2024

GIVEN THIS STATISTICS AND THE NEED FOR RAPID AND HIGH-QUALITY RECONSTRUCTION, BOTH UKRAINIANS AND POTENTIAL INTERNATIONAL INVESTORS AND DONORS HAVE QUESTIONS:

WHAT WILL HELP UKRAINE RECOVER MOST EFFECTIVELY?
HOW TO PROPERLY ALLOCATE INVESTMENTS AMONG PROJECTS AND MONITOR THEIR USE?
HOW TO OBJECTIVELY ASSESS THE REQUIRED FUNDS FOR INFRASTRUCTURE RECONSTRUCTION?
THE ANSWER TO THESE QUESTIONS IS QUITE SIMPLE –
THE CORRECT APPLICATION OF BUILDING INFORMATION MODELING
BIM BUILDING INFORMATION MODELLING

WHAT IS BIM?

BIM is a process that involves the use of information technologies to create a digital representation of a project and manage all information flows throughout its lifecycle. Using three-dimensional modeling, BIM defines the way professionals in the construction industry plan, design, build, and manage buildings and infrastructure in a unified virtual data environment using specialized software.

WHAT ARE THE ADVANTAGES OF BIM?

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SPEED

Reducing design time by 40% through digital models

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COST SAVINGS

Up to 30% cost reduction due to accurate planning

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ACCURACY

95% accuracy in work execution thanks to 3D models

WHY IS BIM CRUCIAL FOR UKRAINE'S RECONSTRUCTION?

📋

EFFICIENT RESOURCE PLANNING AND MANAGEMENT

BIM enables the creation of detailed digital models, facilitating construction and infrastructure projection to manage resources, save materials, and reduce risks.

⏱️

MINIMIZING RECONSTRUCTION TIME

Thanks to accurate digital models, BIM accelerates project activities by saving coordination time between different project stakeholders, avoiding errors, and reducing execution time.

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OPTIMIZATION OF COSTS AND RESOURCES

BIM enables efficient resource use during reconstruction, reducing costs and maximizing project outcomes.

IMPROVING THE QUALITY OF RECONSTRUCTED OBJECTS

Thanks to detailed models, BIM ensures more accurate and high-quality work execution, reducing the risk of errors and defects.

📊

MONITORING AND ANALYSIS CAPABILITIES

BIM allows real-time response to changes and tracking of results.

BIM LIFECYCLE

1. DESIGN

1

1. DESIGN

Creating detailed 3D models with integrated laser scanning and geodetic measurement data. Collision analysis helps avoid up to 80% of errors at the design stage, optimizing the placement of engineering systems and structural elements.

2. PLANNING

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2. PLANNING

Developing 4D (time) and 5D (cost) models to align work schedules, material costs, and resources. This enables forecasting project timelines and optimizing budgets before construction begins.

3. CONSTRUCTION

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3. CONSTRUCTION

Using 4D/5D planning for synchronizing work, materials, and costs. Real-time quality control with BIM models ensures compliance with project requirements.

4. OPERATION

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4. OPERATION

Monitoring the condition of reconstructed objects using IoT technologies and BIM models. This includes managing maintenance, energy consumption, and planning repairs to extend building lifespan.

5. RECONSTRUCTION

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5. RECONSTRUCTION

Upgrading buildings using BIM to assess structural conditions, plan work, and minimize costs. BIM reduces the environmental impact of reconstruction and optimizes resource use.

EFFICIENCY OF BIM IN DESIGN

PD: Pre-design SD: Schematic design DD: Design development CD: Construction doc. PR: Procurement CA: Construction Administr. OP: Operation EFFICIENCY PD SD DD CD PR CA OP Ability to influence cost Cost of design changes Traditional design process Desired design process SOURCE: Patrick MacLeamy AIA/HOK

WHY IS THIS PROJECT IMPORTANT?

The implementation of BIM technologies is critically important for restoring Ukraine's infrastructure, destroyed by the war. These technologies optimize design, construction, and operation processes, significantly reducing costs and time for reconstruction. Thanks to BIM, we can attract international investments, increase project transparency, and train highly qualified specialists who will ensure the quality restoration of the country and its integration into the European digital space.