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Environment EnergyTop 10 Best Geothermal Software of 2026
Rank and compare top geothermal software tools with criteria, strengths, and tradeoffs for engineers, using Ground Loop Design, TRNSYS, and Visual MODFLOW Flex.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
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Framework: Features 40% · Ease 30% · Value 30%
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Ground Loop Design is the best fit if you need fast, repeatable Windows borefield sizing iterations from load inputs and layout options, whereas Earth Energy Designer works well for iterative borefield temperature response and lifecycle outputs, and if you want the quickest entry for basic geothermal loop sizing math, GCHPCalc is the pick.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Ground Loop Design
Configuration-aware borefield outputs that connect load inputs to field sizing and loop temperature behavior across layout variants.
Best for: Fits when geothermal engineers need fast, repeatable borefield sizing iterations from load inputs and layout options.
TRNSYS
Editor pickThe Type-based component library enables granular geothermal model connections across system controls and ground heat transfer.
Best for: Fits when geothermal teams need hourly integration from loads to borefield thermal response.
Visual MODFLOW Flex
Editor pickVisual scenario configuration links hydrogeologic setup and thermal simulation steps in one guided workflow.
Best for: Fits when geothermal teams run MODFLOW-based transient thermal scenarios with repeatable visual setup.
Comparison Table
Ground Loop Design
vertical specialistWindows software for geothermal ground heat exchanger design and sizing.
Configuration-aware borefield outputs that connect load inputs to field sizing and loop temperature behavior across layout variants.
Ground Loop Design turns a building hourly load profile into borefield design recommendations using configuration-aware calculations for closed-loop heat exchanger sizing. It supports multiple loop layouts, including vertical loop field designs and horizontal trench loop concepts, so the same load and ground assumptions can be reused across layout variants. It also produces engineering-ready outputs such as estimated loop temperatures and field sizing parameters that align with borehole and loop performance review needs.
A key tradeoff is that advanced thermal modeling choices depend on correct user input for ground thermal conductivity assumptions and grout and borehole parameters, which can change outcomes more than UI navigation. It fits best when engineers need repeatable iteration cycles for borehole depth optimization and thermal interference spacing decisions, not when teams require a fully integrated geothermal-to-load simulation stack with equipment dispatch.
- +Iteration-friendly borefield sizing from hourly loads
- +Layout support for vertical loop fields and trench concepts
- +Engineering outputs that feed loop and system review
- +Consistent configuration inputs across design variants
- –Thermal assumptions can dominate results without guidance
- –API and automation surface are not clearly positioned for integration
Geothermal design engineers
Compare bore depth and spacing
Fewer redesign cycles
Energy modeling analysts
Quantify ground temperature response
Consistent equipment inputs
Show 1 more scenario
Consulting project teams
Draft field layout documentation
Cleaner technical handoffs
Generate field sizing parameters and layout guidance for stakeholder review.
Best for: Fits when geothermal engineers need fast, repeatable borefield sizing iterations from load inputs and layout options.
TRNSYS
enterpriseTRNSYS models transient building energy systems, including ground heat exchangers and geothermal heat pumps.
The Type-based component library enables granular geothermal model connections across system controls and ground heat transfer.
TRNSYS fits teams that need end-to-end hourly performance estimates from building load profiles through heat exchanger heat transfer and circulating fluid temperatures. The component library approach enables explicit configuration of vertical loop field elements, thermal response, and system controls that drive EWT and LWT behavior. This depth is useful when the analysis must connect design-day decisions to seasonal energy outcomes rather than produce a single static sizing result.
A key tradeoff is that TRNSYS requires model assembly discipline, since correct results depend on how components are connected and how timestep, convergence, and property correlations are configured. It is a strong choice for recurring parametric borefield studies where automation and repeatable configurations matter more than a guided wizard.
- +Component-based Type system supports detailed geothermal system assembly
- +Hourly simulation connects building load profiles to borefield response
- +Extensible modeling supports custom components for niche geothermal designs
- +Automation-friendly run configurations support repeated parametric studies
- –Model setup and component wiring require strong simulation governance discipline
- –Geothermal-specific outputs still require post-processing for design summaries
- –Learning curve rises when tuning timestep and convergence behavior
- –Large models can increase runtime for long seasonal horizons
Geothermal system engineers
Hourly borefield plus building load simulation
Seasonal COP estimates for design decisions
Thermal modelers at consultants
Parametric vertical loop field studies
Comparable designs from consistent runs
Show 2 more scenarios
Research teams
Custom component development and validation
Reusable experimental simulation setups
Build new geothermal behaviors as components and integrate them into existing Type workflows.
Energy analysts
Control strategy testing for GSHP
Control-informed operating schedules
Evaluate control changes using hourly simulation with explicit coupling to heat exchanger behavior.
Best for: Fits when geothermal teams need hourly integration from loads to borefield thermal response.
Visual MODFLOW Flex
enterpriseVisual MODFLOW Flex builds groundwater flow and heat transport models for geothermal and aquifer systems.
Visual scenario configuration links hydrogeologic setup and thermal simulation steps in one guided workflow.
Visual MODFLOW Flex fits geothermal projects that need an end-to-end workflow from hydrogeologic properties through transient thermal simulation and result review in one modeling session. It is especially useful when teams need repeatable input generation for scenarios that vary aquifer properties, well or bore geometry inputs, and time-dependent boundary conditions for design-day studies.
A tradeoff appears when project scope depends on deep automation via external orchestration or custom programmatic generation of every input file. The best fit comes when geothermal teams already operate within MODFLOW-style modeling conventions and want visual configuration to keep scenario management consistent across iterations.
- +Visual step workflows reduce repeated manual editing across scenario runs
- +Transient heat transport outputs support geothermal temperature response studies
- +MODFLOW-aligned setup supports established hydrogeologic parameter workflows
- +Consistent run configuration helps compare design iterations
- –External API depth is limited for full custom automation of inputs
- –Complex geothermal boundary conditions still require careful model validation
Geothermal design engineers
Transient thermal modeling for borefields
Faster scenario comparison
Hydrogeologists
Groundwater flow coupled with heat
Unified modeling workflow
Show 1 more scenario
Project modelers
Design-day scenario management
Lower setup drift
Teams vary geometry, parameters, and boundary conditions and keep configuration aligned across repeated runs.
Best for: Fits when geothermal teams run MODFLOW-based transient thermal scenarios with repeatable visual setup.
COMSOL Multiphysics
simulation platformMultiphysics simulation platform used for geothermal heat transfer, porous media flow, and borehole heat exchanger modeling.
Coupled time-dependent geothermal thermal response tied to real hourly load inputs through customizable model components.
COMSOL Multiphysics turns geothermal design questions into coupled physics models that can connect subsurface heat transfer, borehole heat exchanger response, and building or heat pump operating constraints in one workflow. It supports parameter sweeps for borefield geometry and grout or fluid properties, and it can run time-dependent simulations for EWT and LWT trajectories under real hourly load profiles.
- +Coupled multiphysics lets geothermal heat transfer align with thermal and flow constraints
- +Parameter sweeps enable controlled borefield studies across depth, spacing, and grout properties
- +Time-dependent EWT and LWT simulation supports hourly building load profile inputs
- +Model extensibility supports custom physics for TRT-style boundary and material assumptions
- –Geothermal workflows often require model-building time, not just configuration
- –Automation via API is available but increases integration effort for non-COMSOL teams
- –Large borefield meshes can strain compute throughput without careful meshing strategy
- –Common borehole design conventions may require manual setup to match IGSHPA or IGSHPA-style assumptions
Best for: Fits when teams need coupled geothermal simulations with custom physics and repeatable parameter studies across design alternatives.
EnergyPlus
enterpriseEnergyPlus simulates building energy performance and includes ground heat exchanger and geothermal heat pump models.
EnergyPlus couples detailed zone loads and HVAC heat pump cycling with ground-loop boundary conditions through its plant and heat exchanger components.
EnergyPlus runs whole-building energy simulations and converts hourly building load inputs into detailed heat transfer and equipment energy results. It links weather files and building geometry to zone loads, HVAC operation, and heat exchanger behavior using configurable schedules and material layers.
- +Hourly building and HVAC coupling for ground heat exchanger studies
- +Parametric runs enable systematic scenario comparison and sensitivity work
- +Extensible output reporting for downstream analysis and visualization
- +Material and zone heat transfer modeling supports realistic transient loads
- –Geothermal borefield modeling depth depends on external ground response inputs
- –Configuration requires careful input-data management across many objects
- –Limited turnkey borehole design workflows compared with dedicated geothermal tools
- –Debugging model behavior can be difficult when outputs diverge from expectations
Best for: Fits when teams need building-load accuracy and want to couple geothermal heat pump operation to hourly simulation results.
GEO*Design
vertical specialistGeothermal design software for vertical and horizontal ground heat exchanger sizing with heat pump COP modeling.
Design-oriented scenario management that keeps borefield assumptions traceable across reruns and exports.
GEO*Design targets geothermal reservoir analysis workflows that combine borefield geometry with thermal performance calculations in a design-oriented project structure.
- +Clear project workflow from borefield inputs to temperature performance outputs
- +Scenario reruns make design assumption comparisons practical
- +Time-based simulation outputs align with typical EWT and LWT checks
- +Supports common geothermal loop layouts for vertical loop field studies
- –API and automation depth lag behind larger engineering ecosystems
- –Parametric studies across many design variables need manual orchestration
- –Thermal test interpretation coverage can be thinner than TRT-focused toolchains
- –Less suited to workflows that require deep reservoir coupling beyond borefield behavior
Best for: Fits when mid-size geothermal teams need repeatable borefield thermal simulations with scenario comparison.
GCHPCalc
vertical specialistGCHPCalc calculates ground heat exchanger requirements for ground-source heat pump systems.
Tightly scoped geothermal loop and borefield thermal calculations aligned with IGSHPA design methodology inputs and outputs.
GCHPCalc on igshpa.org focuses on geothermal ground heat exchanger design calculations and interpretation aligned with IGSHPA-style workflows rather than broad reservoir modeling. It supports borefield and loop sizing math with inputs for borehole geometry, grout and pipe thermal conductivity, and design temperature boundary conditions for EWT and LWT estimates.
- +IGSHPA-aligned calculations for EWT and LWT design temperature logic
- +Supports borehole and loop thermal properties needed for sizing inputs
- +Produces directly reusable sizing outputs for borefield design workflows
- +Keeps the workflow focused on geothermal heat exchanger calculations
- –Does not cover full borefield thermal interference studies across many layouts
- –Limited automation surface for batch parametric borefield studies
- –Relies on manual data entry for complex building load profiles
- –Few governance controls like RBAC and audit logging
Best for: Fits when geothermal designers need fast, IGSHPA-guided loop and borefield sizing math for design-day assumptions.
TOUGH
enterpriseNumerical simulation framework for multiphase fluid and heat flow in fractured porous media developed by Lawrence Berkeley National Laboratory.
Reservoir-scale coupled thermo-hydrological behavior modeling with physics package configuration for geothermal system simulation.
TOUGH is tied to the TOUGH simulator line used for subsurface geothermal modeling, and its value comes from coupled reservoir physics rather than surface-level sizing tools.
- +Coupled reservoir heat and fluid flow simulation supports scenario-grade analysis
- +Configurable physics options support multi-physics geothermal behavior modeling
- +Repeatable input-driven runs support parametric studies across operating schedules
- +Well and boundary-condition representation supports detailed operational narratives
- –Setup complexity is high compared with spreadsheet or single-engine calculators
- –Outputs often require additional post-processing to map directly to building load metrics
- –Model configuration depth can slow iteration during early borefield screening
- –Integration with modern geospatial and energy modeling workflows is not turnkey
Best for: Fits when reservoir drawdown, thermal interference, and operating schedules must be modeled with physics coupling.
Earth Energy Designer
vertical specialistGround heat exchanger design tool for borefield sizing, thermal resistance calculation, and hourly load profile analysis.
Integrated temperature-side simulation that links borefield field geometry, thermal resistance assumptions, and EWT to design-day and lifecycle outputs in one run.
Earth Energy Designer performs geothermal ground-loop and borefield sizing from building load inputs, including EWT and LWT temperature simulation and circulation constraints. It supports parametric studies for borehole and field layouts, including vertical loop field configuration and thermal interference driven spacing effects.
- +Explicit EWT and LWT simulation tied to hourly load profiles
- +Parametric borefield studies for spacing and depth optimization
- +Thermal resistance and grout inputs stay visible in results
- +Lifecycle operating cost outputs support design trade-offs
- –Workflow setup depends on consistent units and field parameter discipline
- –Automation depth for bulk design studies is limited without external scripting
- –Interface navigation can feel data-entry heavy for complex field variants
- –Some advanced heat pump and plant loop details require extra modeling steps
Best for: Fits when geothermal designers need iterative borefield sizing with temperature response and lifecycle outputs for building load cases.
ThermoGIS
vertical specialistThermoGIS maps geothermal resources and evaluates subsurface heat potential for project planning.
Parameterizes thermal modeling runs from borehole and ground inputs, then carries results into borefield-level layout iterations for consistent design changes.
ThermoGIS is a geothermal software solution focused on translating borehole and ground thermal information into design inputs for closed-loop systems. It supports borefield planning workflows tied to loop geometry choices and ground thermal response modeling.
- +Ties loop layout decisions to consistent ground thermal assumptions
- +Handles common vertical field planning inputs in a single workflow
- +Provides calculation outputs that support iterative borehole depth tuning
- +Produces design-ready parameter sets for downstream use
- –Limited coverage for advanced field interference studies at scale
- –Workflow structure can feel rigid for nonstandard loop layouts
Best for: Fits when geothermal teams need repeatable borefield iterations from ground inputs to layout parameters without heavy customization.
Conclusion
After evaluating 10 geothermal software, Ground Loop Design 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 Geothermal Software
Geothermal software choices in this guide cover borefield design, thermal response simulation, and scenario workflows across Ground Loop Design, TRNSYS, Visual MODFLOW Flex, COMSOL Multiphysics, EnergyPlus, GEO*Design, GCHPCalc, TOUGH, Earth Energy Designer, and ThermoGIS. Teams typically start with a tool’s ability to carry hourly loads into EWT and LWT logic, then decide how much automation and integration support the workflow offers for repeatable design studies.
Ground Loop Design and TRNSYS anchor the reservoir-to-load connection emphasis, while COMSOL Multiphysics and TOUGH anchor coupled physics depth and scenario research workflows. Visual MODFLOW Flex, EnergyPlus, GEO*Design, Earth Energy Designer, and ThermoGIS fill the space between guided scenario configuration and borefield iteration from consistent ground assumptions.
Geothermal Software for borefield design, thermal response simulation, and scenario automation
Geothermal software models how ground and heat transfer behavior map to design-day and lifecycle temperature performance, then connects those temperature results to building load inputs and heat pump operating logic. Ground Loop Design focuses on configuration-aware borefield outputs that connect load inputs to field sizing and loop temperature behavior across layout variants. TRNSYS takes a Type-based component library approach so hourly simulation can connect system controls and ground heat transfer components at the model assembly level.
COMSOL Multiphysics and TOUGH extend that modeling emphasis into coupled multiphysics and physics configuration when reservoir drawdown, thermal interference, and operating schedules must be treated as first-class scenario inputs. Teams use these tools to compare borehole depth, spacing, grout and loop assumptions, and plant operating conditions without losing traceability across reruns, exports, and design summaries.
Geothermal Software features that drive borefield accuracy and repeatable scenarios
Teams need geothermal software that keeps hourly load logic connected to borefield thermal outputs, because EWT and LWT design temperatures depend on that chain. Ground Loop Design and TRNSYS both emphasize that hourly connection, while EnergyPlus and Earth Energy Designer bring the same coupling into building and HVAC heat pump simulation workflows.
Hourly load to borefield temperature behavior coupling
Ground Loop Design links load inputs to field sizing and loop temperature behavior across vertical and trench layout variants. TRNSYS uses its Type-based component library to assemble hourly system and ground heat transfer models, so geothermal response changes propagate through connected components.
Parameter sweeps and controlled scenario reruns
COMSOL Multiphysics supports parameter sweeps for depth, spacing, and grout property studies across controlled borefield design alternatives. GEO*Design manages scenario reruns that keep borefield assumptions traceable from inputs to temperature performance outputs.
Guided configuration workflows for transient geothermal scenarios
Visual MODFLOW Flex ties hydrogeologic setup and thermal simulation steps into guided visual scenarios for repeatable transient studies. EnergyPlus runs hourly building and HVAC heat pump coupling through plant and heat exchanger components so geothermal ground-loop boundary conditions stay consistent across parametric runs.
Coupled physics for reservoir drawdown and thermal interference modeling
TOUGH configures reservoir-scale thermo-hydrological physics so drawdown, thermal interference, and operating schedules remain first-class scenario inputs. COMSOL Multiphysics supports coupled time-dependent geothermal thermal response when teams need custom physics components with parameterized studies.
IGSHPA-aligned design temperature logic and calculation scope
GCHPCalc aligns geothermal loop and borefield thermal calculations to IGSHPA design methodology inputs and outputs so EWT and LWT design logic matches common design assumptions. Earth Energy Designer concentrates on temperature-side simulation that links borefield geometry, thermal resistance assumptions, and EWT into design-day and lifecycle outputs.
Decide based on model depth, scenario orchestration, and integration automation
The first decision should separate tools built for borefield-level design iteration from tools built for reservoir-scale coupled physics. Ground Loop Design and GEO*Design focus on borefield outputs and scenario traceability, while TOUGH targets coupled reservoir heat and fluid flow behavior with higher setup complexity.
Pick borefield design iteration tools when the workflow must stay traceable
Choose Ground Loop Design when hourly load inputs must drive repeatable borefield sizing across multiple layout variants with configuration-aware outputs. Choose GEO*Design when scenario reruns must preserve traceability from borefield assumptions through temperature performance exports.
Pick guided transient scenario tools when MODFLOW-style setups dominate
Choose Visual MODFLOW Flex when teams run transient heat transport studies and want visual step workflows that reduce repeated manual edits across scenarios. Validate complex boundary conditions within the modeling approach because advanced geothermal boundary conditions still require careful model validation.
Pick component-assembly simulators when hourly control and ground transfer wiring must be explicit
Choose TRNSYS when Type-based component connections need to connect building-load profiles, system controls, and ground heat transfer components at model assembly level. Expect model setup and component wiring to require strong governance discipline for consistent results across reruns.
Pick coupled multiphysics tools when thermal response must include custom physics
Choose COMSOL Multiphysics when coupled time-dependent geothermal thermal response must align with hourly load inputs through customizable model components. Use parameter sweeps for controlled studies across depth, spacing, and grout properties, and plan for model-building time beyond configuration.
Pick reservoir-scale physics when drawdown and thermal interference must be modeled as coupled behavior
Choose TOUGH when reservoir drawdown, thermal interference, and operating schedules must be represented with configurable physics options. Plan for higher setup complexity compared with single-engine calculators and budget time for post-processing when outputs must map to building load metrics.
Pick building-coupled plant simulators when HVAC heat pump operation must be modeled with geothermal boundary conditions
Choose EnergyPlus when hourly zone loads and HVAC heat pump cycling must be coupled to ground-loop boundary conditions through plant and heat exchanger components. Choose Earth Energy Designer when iterative borefield sizing must connect EWT and LWT temperature response and lifecycle outputs to building load cases in one run.
Which teams Geothermal Software fits based on modeling goals and workflow constraints
Engineering teams that treat geothermal design as a repeatable study process need tools that connect load logic to borefield temperature behavior while preserving scenario traceability. This guide separates that work from reservoir-scale coupled physics work, where teams must accept higher setup effort to capture thermo-hydrological coupling.
Geothermal borefield designers running repeated design alternatives
Ground Loop Design supports iteration-friendly borefield sizing from hourly loads and layout options, and GEO*Design keeps borefield assumptions traceable across scenario reruns. These teams benefit when the deliverable is design-day temperature performance with clear comparison between alternatives.
Simulation engineers who assemble hourly geothermal system behavior from components
TRNSYS supports granular assembly using a Type-based component library so hourly simulation can connect system controls and ground heat transfer components. Teams benefit when they can enforce simulation governance around component wiring and post-processing.
Thermal modelers who need coupled physics beyond borefield-only calculations
COMSOL Multiphysics enables coupled time-dependent geothermal thermal response tied to hourly load inputs with customizable model components. TOUGH extends the work into reservoir-scale thermo-hydrological coupling where drawdown and thermal interference remain first-class scenario inputs.
Building energy modelers coupling geothermal with HVAC heat pump cycling
EnergyPlus couples detailed zone loads and HVAC heat pump cycling with ground-loop boundary conditions through plant and heat exchanger components. Earth Energy Designer concentrates on temperature-side simulation that ties borefield geometry and EWT and LWT logic to design-day and lifecycle outputs tied to building load cases.
Common Geothermal Software pitfalls that create misleading design outputs
Geothermal teams commonly misjudge how much thermal assumptions control the outputs when the modeling chain between loads, ground response, and EWT and LWT logic is not managed. Ground Loop Design can produce results where thermal assumptions dominate if guidance around those assumptions is not added to the workflow.
Treating borefield sizing outputs as fully reliable without managing the thermal assumptions that drive the chain from loads to loop temperatures
Use workflow guidance around thermal properties and boundary conditions so outputs do not reflect only dominant assumptions, which is called out as a risk in Ground Loop Design.
Skipping governance for component wiring in Type-based hourly simulations
TRNSYS supports detailed geothermal system assembly, but model setup and component wiring require strong simulation governance discipline to keep results consistent across reruns.
Assuming that guided transient workflows remove the need for validation of complex geothermal boundary conditions
Visual MODFLOW Flex reduces repeated manual editing through guided visual steps, but complex geothermal boundary conditions still require careful model validation.
Underplanning for the time and integration effort required for coupled multiphysics builds
COMSOL Multiphysics can require model-building time beyond configuration, and automation via API increases integration effort for teams that need non-COMSOL workflows.
Expecting reservoir-scale thermo-hydrological models to directly deliver building-ready design summaries
TOUGH supports coupled reservoir heat and fluid flow simulation, but outputs often require additional post-processing to map directly to building load metrics.
What checked the Geothermal Software picks
Analysts gathered tool descriptions from the original publication pages and copied every figure that appears beside a statement about the geothermal software’s capabilities. Analysts then compared each copied figure with official documentation and the tool’s changelog, and they used an independent review only when one was cited by the publication.
The list kept picks where the published claims matched those documents, and it kept Ground Loop Design when its borefield outputs linked load inputs to field sizing and loop temperature behavior across layout variants. This set also favored tools with scenario rerun behavior that preserves design assumptions for repeatable geothermal studies, which shows up as configuration-aware outputs in Ground Loop Design and traceable scenario reruns in GEO*Design.
Frequently Asked Questions About Geothermal Software
How do Enverus-style reservoir analysis workflows differ from TOUGH and COMSOL for geothermal modeling?
Which tool supports APIs or automated exchange for iterative geothermal studies without manual file reshaping?
When teams need single-user workspace setup with strict admin controls, what should be evaluated in GEO*Design or ThermoGIS?
How should teams migrate existing geothermal spreadsheets or past study outputs into EnergyPlus or Earth Energy Designer without breaking traceability?
What breaks if borefield thermal resistance inputs are inconsistent between TRNSYS and Earth Energy Designer runs?
When does Earth Energy Designer fall short compared with COMSOL for EWT and LWT modeling?
Which workflow is better for transient groundwater heat response when Visual MODFLOW Flex and TOUGH are both available?
How do TRT interpretation workflows connect to design outputs in GCHPCalc versus Earth Energy Designer?
Where does ThermoGIS typically fit short of COMSOL when customization is required?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
Funding and competing interests
This study was co-funded by several of the vendors assessed in it. No single vendor funded it. Funders could propose the market studied.
They had no role in selecting vendors, setting or weighting criteria, analysing data or drawing conclusions, and they received the same factual-accuracy check as every other vendor assessed.
Market definition, inclusion rules and criteria weights were fixed by an editor before research began and did not change afterwards. Editorial process →
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