Advantages of Using an Energy Model
- Accurate prediction of heating, ventilation, and air conditioning system loads.
- Analysis of indoor climate conditions throughout the year considering the designed engineering systems.
- Evaluation of potential annual energy consumption reductions through the implementation of energy-efficient solutions.
- Analysis of energy resource consumption, considering the interrelationship between consumers under real operating conditions.
- Forecasting annual operating costs: expenses for thermal and electrical energy by building consumers.
- Possibility to increase the project's IRR by 8-10% by reducing capital costs for connection to energy sources and optimizing the cost of energy supply equipment.
Key Aspects in Creating the Model
- Building architecture;
- Geographical location and orientation relative to the cardinal directions;
- Impact of neighboring buildings on shading calculations;
- Thermal protection of the building envelope;
- Calculations of heat losses and heat gains;
- Operating mode and distribution of energy loads among consumers;
- Accounting for the performance of engineering systems and their automation;
- Modeling of building energy supply systems, including centralized sources;
- Calculation of loads on the building's energy system;
- Application of alternative and renewable energy sources.
To calculate the cost of the energy modeling service, use our online calculator.
Methodology of Energy Modeling
In creating an energy model, two digital models of the building are developed:
1. "Base Model"A 3D model of the building is constructed in a specialized software tool, taking into account all the engineering aspects provided by the project. This model is then used to analyze the thermal and electrical loads necessary for the building's operation and compare them with the project specifications.
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2. "Energy-Efficient Model"Based on the "Base Model," energy-efficient solutions are developed, tailored to a specific list for the particular building. These solutions aim to reduce energy loads and annual resource consumption costs.
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The difference in annual energy consumption between the "Base" and "Energy-Efficient" models demonstrates the level of achieved energy efficiency and the economic benefits during the building's operation. |
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Comparing the energy loads (thermal and electrical) between these models allows for the assessment of potential savings during the construction phase, related to the capacity of connections to energy networks. |
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Objectives of Construction Object Energy Modeling
Option 1:
Building Certification According to International Environmental Standards. Buildings aiming to meet standards such as LEED and BREEAM undergo an energy modeling process comprising two key stages:
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1. Preliminary Energy Modeling
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2. Energy Modeling for Certification Body Examination
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Option 2:
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Engineering Project Rework for Optimizing Capital and Operational Costs, Investment Attractiveness Analysis for Implementing Energy-Efficient Solutions |
1. Verification of Project Solutions: Detailed Study of Project Solutions: Conduct a thorough review of project solutions, calculate the energy loads of the object, and verify the parameters of the energy system for optimality and sufficiency.
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2. Optimization of Capital Construction Costs: Energy Modeling for Cost Optimization: Utilize energy modeling to optimize project solutions and reduce costs on engineering equipment and connection to energy supply systems.
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3. Reduction of Operational Costs: Evaluate potential investments in energy efficiency to achieve long-term savings in management and maintenance of the object (budget, operational expenses, IRR, NPV, energy loads (thermal, cooling, electrical), and annual energy resource expenses). |
To determine the cost of energy modeling services, you can use our online calculator.
Why is Energy Modeling Necessary?
Energy modeling is used to forecast the performance of a building in the future, starting from its design phase. This enables the selection of the most advantageous energy supply scenario, identification of the best and most environmentally safe type of engineering equipment, calculation of development prospects, and anticipation of future operational costs. It also allows for the integration and prediction of the effectiveness of innovative solutions.
Benefits of Energy Modeling
Energy modeling can address several key tasks:
- Optimization of Operational Costs: Energy modeling helps determine which investments in energy efficiency can reduce long-term management and maintenance costs of the building.
- Reduction of Capital Costs: It allows for the adjustment of design decisions and consumer loads, potentially lowering the cost of engineering equipment and connection to municipal energy supply networks.
- Analysis of Project Solutions: Energy modeling allows for the assessment of the feasibility of design decisions and the optimization of energy loads, preventing the incorrect selection of engineering equipment.
- Certification for Green Buildings: Energy modeling confirms compliance with energy efficiency requirements for environmental certifications such as LEED, BREEAM, and WELL.
Value of Energy Modeling for the Object
Energy modeling enables the creation of a substantiated and energy-efficient project, which will be valued by future tenants and owners, possessing high investment potential.