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Top 10 Best Heat Pump Design Software of 2026
Compare heat pump design software options for HVAC engineers, covering features, workflows, and tradeoffs for selecting a tool like DesignBuilder.
How we ranked these tools
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Framework: Features 40% · Ease 30% · Value 30%
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Coolselector 2 is the best pick for designers working in Danfoss heat-pump workflows because its refrigerant- and operating-condition filtered selection turns application inputs into comparable performance and documentation, while CIAT™ Software fits teams repeatedly selecting CIAT units from confirmed project loads thanks to its manufacturer-tied catalog selection and built-in performance checks.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Coolselector 2
Danfoss-specific selection engine filters components by refrigerant and operating conditions, then calculates application-relevant performance.
Best for: Fits when designers need Danfoss component selection and documentation inside a heat-pump or refrigeration equipment workflow.
CIAT™ Software
Editor pickManufacturer-specific performance selection tied directly to CIAT heat pump catalog data and technical documentation.
Best for: Fits when engineering teams repeatedly select CIAT heat pumps from confirmed project loads.
DesignBuilder
Editor pickDesignBuilder’s graphical EnergyPlus workflow links 3D geometry, HVAC templates, and simulation results.
Best for: Fits when engineers need whole-building heat pump studies tied to geometry, schedules, and annual EnergyPlus results.
Comparison Table
Coolselector 2
vertical specialistSelection software for refrigeration and heat pump components with refrigerant calculations and system-oriented sizing workflows.
Danfoss-specific selection engine filters components by refrigerant and operating conditions, then calculates application-relevant performance.
Coolselector 2 is a Danfoss-centered component selection application rather than a full heat-pump load and system design suite. Its selection workflows use refrigerant, operating-condition, capacity, and pressure-drop inputs to identify compatible valves, controls, and other refrigeration components.
Designers can compare candidates, save selections, and produce technical documentation from the same workspace. The tool serves projects built around Danfoss hardware, but it does not replace building load calculations, ground-loop sizing, or BIM coordination.
- +Large Danfoss component catalog supports refrigerant, capacity, temperature, and pressure-drop based selection.
- +Operating-condition inputs produce calculated capacity, flow, and pressure-drop results for component comparison.
- +Generated selection reports include technical data for equipment documentation.
- +Project saving preserves selections across repeated design work.
- –Coverage is centered on Danfoss components, limiting neutral multi-manufacturer equipment comparison.
- –No whole-building load calculation or BIM export supports complete heat-pump design.
- –Automation and API access are not exposed as core user features.
- –Results do not replace system-level controls, piping, or hydraulic design.
Best for: Fits when designers need Danfoss component selection and documentation inside a heat-pump or refrigeration equipment workflow.
CIAT™ Software
enterpriseCIAT provides selection software for their air handling units, heat pumps, and chillers.
Manufacturer-specific performance selection tied directly to CIAT heat pump catalog data and technical documentation.
CIAT™ Software connects operating inputs with CIAT heat pump performance data, allowing users to review capacity, efficiency, water temperatures, and electrical characteristics for selected conditions. Selection reports provide equipment details for design records and procurement documentation. The manufacturer catalog focus gives CIAT equipment more detailed treatment than generic sizing spreadsheets.
The software does not replace full building load modeling, hydraulic network design, or coordinated BIM authoring. Engineers designing mixed-brand systems may need separate tools for competitor equipment and broader plant analysis. It fits a design office preparing repeated CIAT air-to-water heat pump selections from confirmed project loads.
- +Uses CIAT equipment data for manufacturer-specific heat pump selection
- +Checks performance across defined operating conditions
- +Generates technical selection documentation for project records
- +Supports repeatable sizing workflows for CIAT design teams
- –Cross-brand equipment comparison falls outside the catalog workflow
- –Full building load calculations require separate engineering software
- –Hydraulic distribution design is not the main application
- –BIM coordination may require manual transfer from selection outputs
HVAC consulting engineers
Selecting equipment for commercial projects
Documented equipment selection
CIAT specialist contractors
Preparing tender equipment schedules
Faster tender preparation
Show 1 more scenario
Mechanical design offices
Repeating standard heat pump selections
Consistent selection outputs
Design teams reuse a manufacturer-focused workflow across projects with similar operating requirements.
Best for: Fits when engineering teams repeatedly select CIAT heat pumps from confirmed project loads.
DesignBuilder
enterpriseBuilding performance simulation software with HVAC modeling features that support heat pump system analysis.
DesignBuilder’s graphical EnergyPlus workflow links 3D geometry, HVAC templates, and simulation results.
DesignBuilder brings a graphical building model, HVAC system editor, and EnergyPlus simulation engine into one workflow. Heat pump studies can combine zone loads, schedules, plant controls, and annual EnergyPlus runs, with templates for common air-source and ground-source arrangements. CFD, daylight, and compliance reports extend the model, but dedicated ground-loop engineering and manufacturer selection remain outside its main workflow.
- +Hourly EnergyPlus simulation captures interactions among heat pumps, zones, schedules, and plant controls.
- +3D geometry, constructions, schedules, and HVAC stay in one model.
- +HVAC templates reduce initial system assembly for common configurations.
- +CFD and daylight modules extend analysis beyond annual energy results.
- –Dedicated borefield sizing and loop-field layout are not its central workflow.
- –Detailed HVAC models require familiarity with EnergyPlus objects and control logic.
- –Equipment catalogs, manufacturer selection, and procurement outputs are limited.
- –Heat pump outputs require interpretation rather than a dedicated equipment selection report.
Best for: Fits when engineers need whole-building heat pump studies tied to geometry, schedules, and annual EnergyPlus results.
TRNSYS
enterpriseTransient system simulation software used to model buildings, HVAC systems, and heat pump performance over time.
Type-based architecture lets engineers replace equations and extend simulations with custom Fortran components.
TRNSYS suits engineers who need transient heat-pump studies across changing weather, controls, storage, and building loads. Its modular Type-based architecture lets users assemble system models, replace component equations, and manage custom components through Simulation Studio and TRNEdit.
- +Modular Type architecture supports custom heat-pump, storage, control, and ground-exchanger components.
- +Type 56 models multi-zone buildings, schedules, gains, and HVAC interactions.
- +Simulation Studio provides graphical assembly for complex component networks.
- +TRNEdit exposes deck files for repeatable parameter and scenario changes.
- –Steep learning curve spans component Types, deck syntax, convergence, and time-step selection.
- –Manufacturer data import and catalog-based equipment selection are not central workflows.
- –Results depend on user-authored parameterization and validation of component assumptions.
- –Interactive reporting is less developed than in specialized HVAC design packages.
Best for: Fits when research teams need custom transient heat-pump simulations combining buildings, controls, storage, and measured data.
Polysun
enterpriseSimulation software for renewable energy systems including heat pumps, thermal storage, and building-integrated system design.
Parameter variation compares multiple integrated system configurations within one Polysun simulation workflow.
Polysun simulates heat pump systems alongside solar thermal, photovoltaic, storage, and auxiliary energy components. Its hourly calculation engine supports equipment comparisons, seasonal energy analysis, and system-level control scenarios using weather and demand inputs. Visual system schematics, manufacturer component data, parameter variation, and report generation support feasibility studies and design documentation.
- +Combines heat pumps, solar systems, storage tanks, and auxiliary sources in one simulation model
- +Hourly simulations support seasonal performance comparisons across changing weather and demand conditions
- +Parameter variation evaluates multiple system configurations without rebuilding each model manually
- +Graphical system schematics connect components, controls, and energy flows for review
- –Detailed building load calculations may require external engineering inputs
- –Uncommon heat pump equipment can require manual component data and parameter entry
- –The broad renewable-system scope adds configuration work for heat-pump-only projects
- –Reports focus on simulated energy behavior rather than construction-document production
Best for: Fits when engineers need comparative simulations for integrated heat pump and renewable energy systems.
Aermec Magellan
vertical specialistSelection and configuration software for Aermec HVAC products including chillers and heat pump units.
Guided Aermec catalogue selection connects operating inputs, model filtering, accessory configuration, and downloadable technical documentation.
Aermec Magellan combines operating-condition inputs, model filtering, accessory selection, and technical document generation in one catalogue workflow. Users can narrow Aermec equipment choices before transferring selected models into proposals, schedules, or contractor documentation. The focused catalogue reduces ambiguity around model variants and compatible options.
- +Direct selection across Aermec heat-pump models
- +Operating-condition filters narrow catalogue choices
- +Accessory options remain tied to selected units
- +Generated technical documents support contractor handoff
- –No documented public API for automated selection workflows
- –No multi-vendor equipment catalogue
- –Manual project input limits bulk selection workflows
- –Does not replace detailed building load calculations
Best for: Fits when engineers need fast Aermec equipment selection and documented outputs for proposals or design coordination.
Thermalia heat pump selection
SMBThermia provides online selection tools for their ground source and air-to-water heat pumps.
Thermia catalog matching connects operating-condition inputs with compatible manufacturer models and selection documentation.
Thermalia heat pump selection matches project operating conditions with compatible Thermia heat pump models and reports selection data for design work. The manufacturer-specific catalog supports capacity and efficiency comparisons across eligible equipment. Its scope is narrower than full building-design software because load calculations, BIM exchange, and automation interfaces are not central features.
- +Thermia catalog data keeps model selection aligned with manufacturer equipment.
- +Operating-condition inputs support capacity and efficiency comparisons across eligible units.
- +Focused workflows reduce irrelevant configuration steps for Thermia equipment.
- +Selection outputs support installer and consultant equipment documentation.
- –No documented API supports automated selections or downstream engineering workflows.
- –Limited BIM export and gbXML exchange restrict integration with building-design applications.
- –Broad building-load modeling remains outside the product's central scope.
- –Administrative controls do not target enterprise RBAC or audit requirements.
Best for: Fits when installers need manufacturer-specific heat-pump selection without integrated load calculation or enterprise automation.
Mitsubishi Electric MELSELECT
enterpriseMitsubishi Electric provides MELSELECT software for selecting air conditioning and heating equipment including heat pumps.
Manufacturer-controlled equipment selection that validates compatible Mitsubishi Electric system combinations and product-specific operating data.
Mitsubishi Electric MELSELECT is a manufacturer-specific selection utility for configuring compatible heat-pump and air-conditioning equipment. Its equipment database supports model selection, system matching, capacity checks, piping configuration, and technical documentation for Mitsubishi Electric product families. MELSELECT suits projects already committed to Mitsubishi Electric hardware, but it does not replace independent load-calculation, whole-building modeling, BIM coordination, or multi-manufacturer comparison software.
- +Manufacturer equipment data supports compatible model and system selection.
- +Checks connected indoor and outdoor unit combinations.
- +Produces technical selection outputs for project documentation.
- +Handles product-specific configuration constraints better than generic calculators.
- –Limited to Mitsubishi Electric equipment families and approved combinations.
- –Does not provide full-building load modeling or energy simulation.
- –No documented public API or broad automation layer is evident.
- –Designers may need separate tools for BIM coordination and detailed hydraulic analysis.
Best for: Fits when engineers need Mitsubishi Electric equipment selection and configuration for projects using one manufacturer.
GeoT*SOL
vertical specialistPlanning and simulation software for heat pump systems with ground source, air source, and domestic hot water configurations.
Integrated long-term simulation connects manufacturer heat pump data with borehole-field geometry and operating conditions.
GeoT*SOL supports heat pump selection from an integrated equipment database and applies geological, hydraulic, and load inputs to system models. Users can compare borehole and collector layouts, adjust design parameters, and simulate seasonal operation before finalizing equipment. The software also generates project reports with input values, diagrams, and calculated performance.
- +Manufacturer heat pump database supports equipment selection inside the design workflow.
- +Models borehole fields, horizontal collectors, and groundwater systems in one project.
- +Annual simulation exposes heat extraction, electricity demand, and auxiliary heating requirements.
- +Calculation reports document assumptions, sizing inputs, and predicted operating results.
- –No documented public API supports batch project creation or automated result extraction.
- –Desktop-first project storage offers limited shared administration and centralized governance.
- –Detailed ground models depend on accurate geology, temperatures, and thermal-property inputs.
- –Hydraulic network design remains less detailed than dedicated pipe-network engineering software.
Best for: Fits when consultants need desktop design and simulation for ground-source systems with documented calculation outputs.
NIBE DIM
vertical specialistDimensioning software for selecting and sizing NIBE heat pump systems for building demand profiles.
NIBE catalog-linked dimensioning workflow matches building inputs with compatible NIBE heat-pump models.
NIBE DIM is NIBE’s browser-based heat-pump dimensioning tool, distinguished by direct selection within NIBE’s equipment range. Building loads, location data, and domestic hot-water demand feed recommendations for suitable heat-pump models and supplementary heating. Output supports equipment comparisons and estimated annual energy performance, but the workflow is centered on NIBE products rather than neutral multi-brand design.
- +Links entered building requirements directly to compatible NIBE heat-pump models
- +Guides installers through heating demand and domestic hot-water inputs
- +Supports comparisons between heat-pump configurations and supplementary heating
- +Produces practical sizing results for NIBE equipment selection
- –NIBE-only equipment scope prevents neutral multi-brand comparisons
- –No documented API limits automated integration with external design systems
- –BIM and gbXML workflows are not clearly exposed
- –Advanced ground-loop and hydraulic design coverage appears limited
Best for: Fits when installers need guided sizing and model selection within the NIBE product range.
Conclusion
After evaluating 10 heat pump design software, Coolselector 2 stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.
Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.
How to Choose the Right Heat Pump Design Software
Heat pump design work often splits into equipment selection, building load modeling, and long-term performance simulation across operating conditions. This buyer's guide covers Aermec Magellan, CIAT Software, Coolselector 2, DesignBuilder, GeoT*SOL, Mitsubishi Electric MELSELECT, NIBE DIM, Polysun, Thermalia heat pump selection, and TRNSYS so engineering teams can map tool behavior to real project workflows.
Some tools focus on manufacturer catalog selection and downloadable documentation tied to filtered operating inputs. Other tools connect geometry and hourly EnergyPlus results or use a simulation architecture that supports custom transient heat-pump components and controls.
Heat Pump Design Software for equipment selection, building integration, and performance simulation
Heat pump design software supports workflows that range from guided manufacturer model selection to multi-physics system simulation. Tools like Coolselector 2 and Thermalia heat pump selection link entering water temperature and operating inputs to application-relevant capacity, efficiency, and documentation outputs for compatible units.
Other platforms expand beyond selection into whole-building or long-horizon performance work. DesignBuilder ties 3D geometry, HVAC templates, and EnergyPlus simulation results into one model, while TRNSYS uses a Type-based architecture that lets engineers replace equations and extend transient simulations for heat pumps, storage, controls, and ground-exchanger behavior.
Heat Pump Design Software features that change real project outcomes
Heat pump design work depends on whether a tool stays inside a manufacturer catalog workflow or reaches into building load modeling and long-horizon performance. Aermec Magellan, CIAT™ Software, Coolselector 2, Mitsubishi Electric MELSELECT, NIBE DIM, and Thermalia heat pump selection concentrate on guided equipment selection with downloadable documentation tied to filtered operating inputs.
Whole-building and ground-system studies shift the center of gravity to simulation depth and project modeling. DesignBuilder links 3D geometry and HVAC templates to hourly EnergyPlus results, GeoT*SOL connects manufacturer equipment data to borehole-field geometry and operating conditions, and TRNSYS uses a Type-based architecture to build custom transient heat-pump simulations.
Manufacturer catalogue selection with operating-condition filtering
Aermec Magellan ties Aermec model filtering to entered operating conditions and accessory configuration, which speeds up proposal-ready selection output. Coolselector 2 filters Danfoss components by refrigerant and operating conditions and calculates application-relevant capacity, flow, and pressure-drop results for component comparison.
Ground-source design coverage for borefields and collectors
GeoT*SOL combines manufacturer heat pump data with borehole-field modeling, horizontal collectors, and groundwater system inputs in one desktop project. Polysun supports comparative simulations for integrated heat pump and renewable energy systems but relies on external inputs for detailed building load calculations.
Whole-building hourly simulation tied to geometry and schedules
DesignBuilder connects 3D geometry, constructions, schedules, and HVAC templates to hourly EnergyPlus simulation results for interactions among heat pumps, zones, and plant controls. TRNSYS can connect buildings, controls, storage, and ground-exchanger behavior in a custom transient simulation, but it does not treat catalog-based equipment selection as a central workflow.
Simulation extensibility for custom transient components and controls
TRNSYS uses a Type architecture that supports custom Fortran components, including heat pumps, storage, control logic, and ground-exchanger behavior. Thermalia heat pump selection focuses on manufacturer-aligned selection from operating inputs and keeps model selection aligned with compatible Thermia equipment rather than extending simulation math.
System compatibility logic within a single equipment family
Mitsubishi Electric MELSELECT validates compatible Mitsubishi Electric system combinations and checks connected indoor and outdoor unit pairings using manufacturer-specific data. Mitsubishi Electric MELSELECT delivers configuration validation without providing full-building load modeling or energy simulation.
Integrated renewable system scenario comparison
Polysun uses parameter variation to compare multiple integrated system configurations inside one simulation model with heat pumps, solar systems, storage tanks, and auxiliary sources. This gives structured comparisons across changing weather and demand conditions even when deeper building load calculations must come from outside engineering inputs.
Choose by workflow fit: catalog selection, building simulation, or custom transient modeling
Start by matching the tool to the stage that consumes the most engineering time on the project. If equipment selection must stay strictly inside one vendor’s catalog workflow, the design environment should reduce manual cross-referencing and keep documentation tied to the entered operating inputs.
Then decide whether the project scope requires whole-building or long-horizon ground-system simulation. DesignBuilder and TRNSYS expand beyond selection into hourly or transient system behavior, while GeoT*SOL focuses on long-term ground-coupled performance with desktop project storage.
Select within a vendor catalogue workflow or plan for a multi-vendor comparison
Use Aermec Magellan, CIAT™ Software, NIBE DIM, or Thermalia heat pump selection when the project deliverable needs manufacturer-aligned equipment selection and downloadable outputs inside the same workflow. Avoid these tools as the only selection layer when multi-manufacturer equipment comparison is required because their scope centers on their catalog families.
Match the scope to ground-source modeling needs
Choose GeoT*SOL when the design includes borehole-field geometry and long-term ground coupling with manufacturer heat pump data in one project. Choose Coolselector 2 or Mitsubishi Electric MELSELECT when the project focuses on component and system selection tied to operating conditions without borefield layout as a core deliverable.
Pick an hourly geometry-based workflow when zones, schedules, and controls drive results
Choose DesignBuilder when the project needs 3D geometry plus schedules plus HVAC templates tied to hourly EnergyPlus results for plant-control interactions among heat pumps and zones. Use TRNSYS when the project needs transient modeling with custom component math and control logic across heat pumps, storage, and ground exchangers.
Decide whether extensibility outweighs guided selection convenience
Choose TRNSYS when custom Fortran component development and scenario modeling are required because its Type-based architecture is built for replacing equations and extending simulations. Choose manufacturer selection tools like Coolselector 2 or CIAT™ Software when the engineering team needs documented, operation-input-driven selection results without building custom simulation types.
Use integrated system scenario comparison when renewables and auxiliary sources must change together
Choose Polysun when the design includes heat pumps plus solar, storage tanks, and auxiliary sources that must be compared under changing weather and demand conditions within one simulation model. Plan additional load-workflows outside Polysun when detailed building load calculations are required because building load depth may require external engineering inputs.
Check automation expectations against documented API and integration needs
Choose tools with automation expectations met by published integration paths when project engineering needs repeatable configuration runs, batch selection, or downstream data handoff. Avoid relying on Aermec Magellan, GeoT*SOL, NIBE DIM, Thermalia heat pump selection, or TRNSYS for automated selection workflows when a documented public API surface is not available in the stated product capabilities.
Who benefits from Heat Pump Design Software by workflow type
Heat pump design software aligns to three day-to-day engineering roles. Some tools optimize catalog selection speed and documentation generation for a specific manufacturer, while others focus on simulation work that links building geometry and operations to plant performance.
Different teams also face different handoff realities. Installer teams often need guided sizing inside a single brand scope, while consultants may need long-term ground coupled performance outputs or custom transient modeling across controls and storage.
Mechanical engineers doing repeat equipment selection within a single manufacturer ecosystem
CIAT™ Software, Mitsubishi Electric MELSELECT, and NIBE DIM map entered requirements to compatible equipment combinations and validate connected indoor and outdoor unit pairing where applicable.
Geothermal consultants designing borefields and long-term ground coupling
GeoT*SOL models borehole-field geometry, horizontal collectors, and groundwater systems while using manufacturer heat pump data inside the same desktop project workflow.
Building energy modelers running hourly plant behavior tied to geometry and schedules
DesignBuilder combines 3D geometry, constructions, schedules, and HVAC templates with hourly EnergyPlus simulation results for heat pump zone and control interactions.
Research teams and advanced controls engineers building custom transient plant and ground models
TRNSYS supports custom transient simulation through a Type-based architecture that enables custom heat-pump, storage, control, and ground-exchanger components using Fortran.
System designers comparing integrated heat pump and renewable configurations
Polysun performs parameter variation and hourly simulation across heat pumps, solar systems, storage tanks, and auxiliary sources within one workflow.
Common Heat Pump Design Software pitfalls during tool selection and rollout
Tool choice fails when the selected software cannot produce the specific deliverable type expected by downstream stakeholders. Some platforms deliver equipment selection and documentation, while others produce building-scale or long-horizon simulation results with different data dependencies.
Common mistakes also arise when teams assume an API-enabled automation path is available, or when they underestimate the modeling work required for building load calculations before running an energy simulation.
Treating a manufacturer-only selection tool as a substitute for whole-building load modeling
Coolselector 2 and Thermalia heat pump selection focus on operating-condition-based capacity and efficiency comparisons inside their selection workflow, so full-building load calculations still require separate engineering software.
Selecting a ground-source simulator without confirming the borefield layout workflow
GeoT*SOL supports borehole-field geometry and horizontal collectors, while DesignBuilder is not centered on borefield sizing and loop-field layout, so the wrong tool can push ground layout work outside the main model.
Assuming there is a documented public API for automated selection or batch project creation
Aermec Magellan and GeoT*SOL are described without a documented public API for automated selection workflows, so teams expecting integration automation should plan for manual steps or custom integration work.
Building a custom transient simulation without accounting for the learning curve of the component architecture
TRNSYS requires familiarity with Type components, deck syntax, convergence, and time-step selection, so project timelines can slip when the team expects a guided selection workflow instead.
Overestimating simulation completeness when external building load inputs are still required
Polysun can compare integrated configurations in hourly simulation, but detailed building load calculations may require external engineering inputs, which means missing load inputs can block accurate seasonal performance comparisons.
How analysts checked which heat pump design tools fit common workflows
Analysts started by pulling each tool listing from the original publication and copying every referenced figure that appears near the tool description. Analysts then compared each copied figure against official documentation and the product changelog, and they used an independent review only when that review was explicitly cited.
Analysts kept a figure when it matched the documentation or changelog statements, and they included a published benchmark only when that benchmark was the stated source for the claim. Analysts wrote the resulting tool coverage to describe the same workflow consequences shown in the figures, without treating any single workflow as universally complete.
Frequently Asked Questions About Heat Pump Design Software
How do manufacturer selection tools differ from general heat pump design software?
Which tools support BIM or geometry workflows for heat pump projects?
How do heat pump simulation engines handle weather and transient operation?
When does geothermal heat exchanger modeling require ground-field simulation rather than simple sizing?
Which integrations and APIs matter for heat pump design toolchains?
What security controls and team governance features should be checked before rollout?
How do teams migrate existing equipment selections and project assumptions into a new tool?
Which admin controls help manage engineering configuration across multiple projects?
What tradeoff occurs when switching from guided equipment selection to customizable simulation?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
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