Concept energy studies
Compare massing, orientation, glazing, shading, envelope, lighting, system, and schedule assumptions early enough to influence design.
Whole-building energy simulation · US / UAE
Building energy modeling for earlier, better design decisions.
Compare design options, predicted performance, code pathways, and sustainability strategies for multifamily, high-rise, commercial, data-center, industrial, healthcare, and institutional projects.
2,500+
international projects
70%
delivered for US projects
US + UAE
offshore delivery
LOD 100–500
model development range
What are building energy modeling services?
Building energy modeling uses computer simulation to estimate how envelope, orientation, schedules, occupancy, lighting, plug loads, HVAC systems, controls, ventilation, service water heating, and other inputs affect predicted energy use and cost. Models can compare a proposed design with a baseline, test alternatives, support code-compliance paths, and contribute to sustainability submissions.
Predicted performance depends on assumptions and available design information. Energy modeling is a decision and compliance tool, not a guarantee of actual utility consumption; final outcomes also depend on construction, controls, commissioning, operations, weather, and occupancy.
Use the model to compare real design options.
The scope can begin at concept design and remain current through documentation, value engineering, and final submission inputs.
Whole-building simulation
Develop proposed and baseline models with traceable geometry, schedules, loads, envelope, HVAC, controls, and utility assumptions.
HVAC option analysis
Compare agreed system types, efficiencies, zoning, ventilation, heat recovery, controls, and plant strategies within the model limits.
Envelope analysis
Test assemblies, insulation, glazing, solar gains, infiltration assumptions, shading, and thermal-performance alternatives.
Code and rating support
Prepare modeling inputs and documentation for applicable energy-code, LEED, or client performance workflows.
Design-change tracking
Update models for approved design changes, value engineering, equipment selections, and final construction-document information.
Project output examples.
Real BIM Bots work showing the level of model information, analysis, and documentation that can sit inside a defined project scope.
From multifamily to high-rise and mission-critical.
The delivery framework adapts to each sector’s information, coordination, documentation, and approval requirements.
Multifamily residential
Apartments, condominiums, multifamily, and residential developments.
High-rise & commercial
Towers, offices, hospitality, retail, and mixed-use buildings.
Data centers
White space, grey space, power, cooling, redundancy, and handover.
Industrial
Manufacturing, utilities, equipment interfaces, access, and installation.
Healthcare & institutional
Hospitals, education, civic, and coordination-intensive facilities.
Infrastructure
Site, civil interfaces, utilities, logistics, and model-based sequencing.
Built for US and UAE teams. Delivered internationally.
Regional delivery pages connect the service scope to local standards, sectors, and project controls.
United States
National BIM and VDC delivery, with 70% of BIM Bots projects delivered for US work.
UAE & Dubai BIM outsourcing
India-based BIM production, coordination, and QA/QC aligned to UAE project controls, consultant reviews, and Gulf working hours.
Data centers
Specialist modeling and coordination for high-density, mission-critical systems.
All regions
Explore local delivery context across priority US hubs, the UAE, and Germany.
Keep assumptions visible as the design changes.
A useful energy model records what is known, what is assumed, what changed, and which decision each run is intended to support.
Set the modeling basis
Confirm objectives, applicable standard or program, climate data, design stage, software, review team, and required outputs.
Build the baseline
Assemble geometry, envelope, schedules, loads, systems, controls, and documented assumptions from current project information.
Test alternatives
Run agreed options, compare energy and cost outcomes, check reasonableness, and identify sensitive assumptions.
Update and document
Reflect approved changes, finalize inputs, prepare reports or submission data, and preserve a transparent assumptions record.
Before you engage the delivery team.
Clear answers on scope, responsibility, standards, and project setup.
When should energy modeling start?
Early modeling provides the most design value because massing, envelope, glazing, shading, and system choices are still flexible. The model can then be updated as the project develops.
Can an energy model predict actual utility bills?
It estimates performance using documented assumptions and inputs. Actual energy use can differ because of weather, occupancy, operations, controls, construction quality, equipment performance, and other factors.
Can BIM geometry support an energy model?
Yes, but the analysis model typically requires zoning, simplification, cleanup, construction properties, schedules, loads, systems, and assumptions that are not contained in geometry alone.
Can energy modeling support Title 24 or LEED?
Yes, when the model follows the applicable program, software, baseline, documentation, and submission requirements. BIM Bots has dedicated pages for California Title 24 and LEED energy modeling support.
Which sectors can use energy modeling?
Potential projects include multifamily, high-rise, commercial, hospitality, data-center, industrial, healthcare, education, institutional, and other conditioned buildings.
Start with the real constraints
Send the project brief. Plan the right delivery model.
Share the project location, sector, disciplines, required LOD, software, available inputs, first deadline, and known coordination risks.
US-focused deliveryUAE and international supportNDA-first workflows