No. CAD is for drafting, while BIM modeling software is a comprehensive approach to building design, analysis, and management.

Digital Blue Foam is developed by architects for architects. We know how much time it can take to create the context and gather all information for a site, let alone draw a few massing studies and create excel sheets for each of them. 

We assist our customers to efficiently and effectively start and communicate early stage project development within their team and with their clients. (Think Jarvis for architects). 

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Yes, DBF provides custom development services tailored to your unique needs. Whether you require specialized integrations, customized features, or specific solutions, our expert team collaborates closely with you to develop and implement these services effectively.

Yes. DBF validates mixed-use programs, integrating retail, F&B, and amenity footfall alongside transit passenger flow requirements.

Yes. DBF generates and scores multiple development scenarios against 15-minute city KPIs simultaneously, enabling direct comparison.

Yes. DBF runs parallel feasibility analysis across multiple candidate sites, scoring each against grid, access, demand, and planning criteria.

DBF integrates seamlessly with BIM software via our proprietary middleware, DBF Hub. This allows you to stream projects directly from the DBF online platform to your desktop BIM software or Enterprise Cloud. DBF Hub supports Revit, Archicad and ESRI connections. 

Learn about DBF Hub

Yes. DBF models phasing scenarios, testing infrastructure demand, land use sequencing, and financial viability across all phases.

Yes. DBF scores parcels by development potential, factoring in zoning, access, infrastructure capacity, and market demand projections.

Yes. DBF integrates multi-source GIS and geospatial data into a unified feasibility workflow alongside BIM and CAD outputs.

Yes. DBF produces BIM-ready validated layouts that connect directly to Revit and ArchiCAD for detailed data center design.

Yes, DBF Mass exports to formats compatible with major BIM tools including Revit and ArchiCAD. You can download DXF files for CAD workflows and Excel files for area schedules. The platform is designed to fit seamlessly into your existing design workflow.


Yes. DBF integrates GFA-based financial viability analysis into program scenario testing, enabling developers to find the optimal mix for returns.

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Yes. DBF validates infection control zone configurations, clean and dirty corridor separation, and isolation requirements against clinical standards.

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Yes. DBF models interactions between transport, energy, social infrastructure, and land use, validating smart city scenarios against cross-system performance targets.

Yes. DBF simulates patient appointment flows, waiting times, and circulation patterns across multiple medical center configurations.

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Yes. DBF simulates peak demand, identifies circulation bottlenecks, and tests multiple layout configurations to find optimal flow solutions.

Yes. DBF tests automation zone configurations and validates spatial requirements for AS/RS, conveyor, and robotic picking systems in early planning.

Yes. DBF tests scalability scenarios for production volume growth and designs flexible layouts that accommodate future EV model changeovers.

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Yes. DBF designs scalable automation zones and validates spatial requirements for AS/RS, robotic picking, and conveyor systems in early planning.

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Yes. DBF designs scalable layouts that accommodate future charger technology upgrades and capacity increases with minimal infrastructure change.

Yes. DBF tests flexible structural grids and service distribution configurations that enable research spaces to be reprogrammed with minimal disruption.

Yes. DBF tests flexible structural grids and service distribution configurations that enable research spaces to be reprogrammed with minimal disruption.

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Yes. DBF models phased airport expansion scenarios, testing how infrastructure additions affect operational flow and capacity at each growth stage.

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Yes. DBF models mixed-tenure programs, combining market, affordable, commercial, and civic uses, and validates financial and spatial viability.

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Yes. DBF models phased electrification from pilot fleets to full conversion, testing infrastructure scalability at every stage.

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Yes. DBF tests scalability and phasing scenarios, ensuring early-stage infrastructure and spatial decisions support future building or tenant expansion.

Yes. DBF models specialist infrastructure demands, cleanroom requirements, hazardous material handling, industrial utilities, in early planning.

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Yes. DBF manages complex buildings with multiple lab types, validating adjacency, containment, infrastructure, and operational flow across all zones.

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Yes. DBF runs multi-site feasibility comparison for vertiport networks, scoring candidate sites against operational, access, and airspace criteria.

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Yes. DBF models multi-phase campus development, testing how each new building or facility addition affects overall campus flow and program balance.

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Yes. DBF models legacy dock sites and generates mixed-use or logistics repurposing scenarios, validated against operational and spatial KPIs.

Yes. DBF tests platform capacity scenarios for current and projected future service frequencies, ensuring infrastructure is right-sized for long-term demand.

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We have a dedicated team, working on the product and believe in what we do. Sign-up for our early access program to see for yourself. We believe in hiring great talent and a sustainable business. By charging our customers fairly we can create more value and continue our mission to accelerate the world's transition to better cities.

Digital Blue Foam makes importing files easy. Simply drag and drop 3D or 2D geometry including: contextual buildings, terrain, setback volumes, or site boundaries. Once uploaded, files are instantly geo-located.   

Learn How to import 2D and 3D files

Yes, DBF Mass supports multiple import formats including DXF, GeoJSON, SHP, and OBJ for site boundaries and context. You can bring your existing site data directly into the platform.


DBF Mass is designed to support your design process with area calculations and feasibility analysis. While we've taken utmost care in accuracy, we recommend verifying outputs with relevant team members or consultants before submissions. DBF Mass is a design tool, not a substitute for professional review.


Absolutely, Digital Blue Foam exists for its customers so we welcome all feedback and ideas. You can drop us a line via the form below and we will get back to you.

You can also check our DBF Community, to give feedback and request features. We do our best to respond to all feedback and requests through frequent updates.

Sign up for our webinar here. 

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AI is a powerful design tool that assists architects in generating design options and exploring possibilities for buildings and other projects. It minimizes costs and automates repetitive tasks but doesn’t replace the architect’s expertise and creativity.

Yes, you can create team projects and share with your team-mates.

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Digital Blue Foam is web-based. This means you do not need to fuss about installations or updates to get started. Our interface runs best on Chrome.

Learn how to get started with DBF

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Yes! We're currently offering personalized 30-minute demos where you can see DBF Mass in action and test it with your own project data. We also offer a 14-day free trial with full platform access. Book your demo using the link above.


Yes. DBF can model on-site generation and storage alongside grid connection demand, optimizing the energy supply mix for depot electrification.

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Currently, DBF Mass focuses on building massing and area calculations for feasibility studies. For detailed unit division and parking layout, we recommend exporting your preferred massing to specialized tools or developing layouts in your BIM software. You can use color-coded zones to indicate unit types and manually define parking areas.


The analytics dashboard and 3D visualization update in real-time as you make changes to massing, programs, or parameters. All area calculations refresh instantly with every adjustment.


DBF generates KPI reports, scenario comparisons, and spatial analysis documents formatted for stakeholder and planning authority review.

DBF supports both greenfield and brownfield analysis, importing existing urban context data to benchmark against 15-minute city targets.

DBF supports analysis at multiple scales, from individual sites to city-wide and regional land use frameworks.

DBF Mass's area calculations are based on industry-standard GFA formulas and building geometry. We've worked closely with architecture professionals to ensure accuracy. All calculations are transparent and update in real-time. We recommend reviewing outputs with your team before final submissions.


DBF's predictions are based on multi-source validated datasets and scenario modeling, producing probabilistic range outputs that improve as more data is integrated.

All our data is geolocated and relates directly to your site and building or urban district. We overlay a range of  different data sets so our customers don’t need to worry about bringing in data such as climate and context, everything is available right at your fingertips. We also highlight the source of our data in the asset manager. If you wish to work with your own datasets, drag and drop them into the tool easily.

Learn more about our data sources

We employ a variety of Machine Learning techniques within our platform. For example, we have trained Machine Learning Models to compute daylight autonomy for a design.  To find out more, check out our medium page. Our team frequently, posts and shares about our current research and development.

DBF’s BIM analysis software provides accurate 3D models, material properties, and load simulations, improving structural evaluation and reducing errors.

We have developed a covid space planner tool and we currently are working with clients on specific projects. If you have any inquiries and like to get in touch to learn more we would be happy to assist you further.

You can share the compare page URL. You can also work together in our virtual collaborative environment called DBF-XD.

Please contact us directly if there is anything you are not happy with and we will do our best to address your concerns. If you are still not happy we will give you a full refund.

A concept is an idea that an architectural design follows. A concept is a philosophy, which can follow a particular style or workflow or even be ideated for a design. So, a concept is an idea that responds to the needs in a creative, efficient, and attractive way. A concept can be of various types, and the list isn’t exhaustible. The types are based on what aspect is focused on. There can be a concept that involves a particular form. It can be based on a particular style that is incorporated in forms or functions. The concepts can prioritize function the most. But a concept is best if it follows specific benchmarks. It should be responsive to climate, responsive to the local context, and it should give an identity to a building. It can respond to sustainability needs by methods like biophilia or recycled architecture. It could be responsive to requirements.

A concept is an idea that an architectural design follows. A concept is a philosophy, which can follow a particular style or workflow or even be ideated for a design. So, a concept is an idea that responds to the needs in a creative, efficient, and attractive way. A concept can be of various types, and the list isn’t exhaustible. The types are based on what aspect is focused on. There can be a concept that involves a particular form. It can be based on a particular style that is incorporated in forms or functions. The concepts can prioritize function the most. But a concept is best if it follows specific benchmarks. It should be responsive to climate, responsive to the local context, and it should give an identity to a building. It can respond to sustainability needs by methods like biophilia or recycled architecture. It could be responsive to requirements.

To create a sustainable building, we need to check that the building leaves a minuscule carbon footprint. The AEC industry is responsible for 40% of carbon emissions in the world. So, to create a sustainable building, we need to make sure of some basic parameters. First of all, the construction material should be eco-friendly and robust. The waste generated from the building should be treated concerning the environment. As designers, there are many factors in designing that can affect the sustainability of a building, which can be creatively handled. Orientation of buildings and the fenestrations as per the sun-path and increasing natural daylight reduce artificial sources. Also, alternate energy sources like solar energy can be tapped for saving more on energy. The right amount of planned ventilation can help maintain thermal comfort and indoor air quality. Using some particular building techniques can help the labor and building process by being reusable and easy to use.

We typically start with an interview style meeting from where both parties learn to scope out the pilot project and deliverables. During the pilot project there will be weekly meetings on requirements and progress. During the pilot project we will create multiple prototypes. We sometimes do a competition with everyone in the organisation to try the tool and come up with a design.  A pilot project typically runs for 2-3 months and during the last phase we make proposals with our customers for the enterprise account. 

We prioritise custom development using agile methodology to maximize value we deliver to the organizations we work with in a transparent manner. 

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DBF tests hundreds of density and program combinations simultaneously, scoring each against liveability metrics including green space, amenity access, and active travel provision.

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DBF runs isochrone network analysis, proximity scoring, and amenity gap analysis across multi-source spatial datasets for any site.

DBF adds AI scenario generation and multi-system KPI validation on top of spatial data, going beyond mapping to generate and compare actionable planning options.

DBF generates multiple validated scenarios in parallel rather than designing one at a time, dramatically reducing feasibility time and improving decision quality.

DBF validates adjacency relationships between all program types, flagging conflicts and generating alternative configurations that satisfy all constraints).

DBF integrates GIS environmental data including flood zones, tidal ranges, and setback requirements into all layout scenarios.

DBF's parametric constraints can be updated as UAM regulatory standards develop, ensuring validated layouts remain compliant with current requirements.

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DBF generates multiple city development scenarios from requirements data, validates KPIs spatially, and produces traceable outputs for stakeholder decisions.

DBF creates multiple capacity scenarios from power and cooling inputs, validates them against KPIs, and compares performance across all options simultaneously.

DBF incorporates regulatory and safety requirements as planning constraints, ensuring generated layouts are compliant before BIM design begins.

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DBF imports GIS and mobility network data to validate site accessibility, catchment analysis, and intermodal connection efficiency.

vs. Autodesk Forma: More flexible massing controls, better 3D visualization quality, more parametric adjustment options
vs. TestFit/Finch: Superior visual presentation quality, better geospatial integration, more sophisticated 3D environment
vs. Grasshopper: No coding required, more intuitive for non-technical users, faster learning curve

DBF integrates catchment and mobility data to model utilization projections, enabling right-sized site capacity planning across any location.

DBF simulates production flow across multiple factory configurations, validating process adjacencies, throughput capacity, and logistics routing simultaneously.

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DBF models simultaneous charging demand peaks across all vehicle types, scheduling patterns, and shift structures to accurately size grid connections.

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DBF simulates peak demand across multiple terminal configurations, identifying processing bottlenecks and optimizing gate, security, and immigration layouts.

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DBF simulates peak demand across platform, concourse, and interchange configurations, identifying bottlenecks and optimizing layout for passenger safety and efficiency.

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DBF simulates operational flow across multiple layout configurations, identifying bottlenecks and optimizing dock, bay, and corridor sizing for target throughput.

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DBF models operational flow across multiple layout configurations, identifying bottlenecks and optimizing dock, bay, and automation zone sizing for target throughput.

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Our AI technology is customized for various building types based on client specifications, ensuring tailored and optimized designs. We use a two-step design generation process:

1. Exploration: We help users efficiently explore the design space using a novelty search algorithm and our proprietary feasibility indicators.
2. Optimization: Our advanced AI optimization algorithms then refine the input designs according to user criteria.

This approach guarantees that our clients receive innovative and precisely optimized building designs.

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DBF uses clinical relationship matrices to test all departmental and specialty adjacency requirements, generating compliant layout options.

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DBF models containment zones, isolation requirements, and controlled access configurations against research program specifications and regulatory standards.

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DBF uses clinical relationship matrices to test all departmental adjacency requirements, flagging conflicts and generating alternative configurations.

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DBF models MEP demand from program inputs, sizing services distribution, fume exhaust, containment systems, and utility connections in early planning.

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DBF simulates multi-stage production flow across layout scenarios, testing process adjacencies, throughput, logistics routing, and safety zone compliance.

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DBF tests vertical use stacking configurations against structural, servicing, acoustic, and access requirements, flagging conflicts between uses.

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DBF models adjacency relationships between all workplace and amenity types, testing flow, access, and operational efficiency across multiple campus configurations.

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DBF offers flexible usage-based pricing, allowing you to pay for our services based on your actual usage. This means you'll be charged according to the specific features, resources, or services you utilize.

We provide, precise and up-to-date, wind analysis and solar studies for any given site location and time period. 

Solar studies involve shadow and radiation analysis, and dynamic daylight metrics like Daylight Autonomy (DA) and Spatial Daylight Autonomy (sDA). You can focus on comparing sustainability of different design options and creating value for your clients, without worrying about any setup requirements.

The generate button takes in large amounts of data and from there starts to create options on the location you have selected using our tool. We assist you to produce building designs based on your input and create a range of options that you can easily compare using our compare overview page. The generate function takes into account your targets and design guidelines, and generates solutions using our proprietary algorithms.

DBF is developed for pre-design use — from initial site identification through program validation and early massing, before BIM modeling begins.

Generative AI in architecture simplifies the design process by analyzing constraints automatically including space, materials, and energy efficiency. Architects input parameters like site conditions, building codes, performance targets, and aesthetic preferences. AI uses algorithms to create design variations in space planning, structural optimization, facade design, fabrication instruction, and urban planning.

Yes. We use the latest encryptions and secure servers and databases. For our enterprise clients, we provide dedicated encrypted servers and databases.

By designing the best user experience, you can get started with Digital Blue Foam in minutes. To learn about our advanced features, we have created a fully-loaded resource center, and video tutorials.

Regardless of your account type there is no limit on how many projects you can save at a given time.

A recent survey of our current customers shows savings of at least 1 week on a 2-3 week project duration. This is a typical feasibility study for the majority of customers, more gains can be made in terms of saving time by creating a range of options. Downloading data such as complete excel sheets and IFC files is assisting our customers further to save time and allow them to focus more on the design to create quality.

Designing a building is not a single flow of processes or stages. A building design module moves back and forth multiple times in its making so that no design aspect is left out. It all starts from studying the design brief or client requirements. Next is choosing a site or getting a site to analyze its physical and contextual features. More studies include literature studies on the building typology and sometimes even case studies. Research is an essential task as it includes studying all the critical requirements like historical study, green measures for sustainability, climate- responsiveness, feasibility and economic responsibility. After combining these studies, a concept is ideated to reflect a particular philosophy, ideal, or maybe just function. A planned design needs to come up which would respond to all these needs. The necessary structural analysis and services are paid attention to. Construction techniques and details are worked upon. The drawings and design have to be approved by authorities, after which a building design is ready for construction.

Yes we do not discriminate or delay other platforms. As long as you use Chrome you can use our online service. We are working to optimize Digital Blue Foam for IPad and other tablet devices to take advantage of the stylus and touch screen.

DBF is designed for the most complex manufacturing typologies, including precision engineering, semiconductor fab, aerospace, and advanced chemicals facilities.

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DBF supports both new-build and brownfield/refurbishment hospital planning, importing existing building data to test feasibility of clinical upgrades.

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DBF supports greenfield station planning and upgrade projects, importing existing infrastructure data to test feasibility of modifications and expansions.

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DBF supports greenfield terminal planning and capacity expansion projects, importing existing airport layouts to test feasibility of additions and modifications.

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DBF is designed for large, complex, mission-critical manufacturing facilities including gigafactories and multi-process EV assembly plants.

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DBF is used by government agencies and municipal planners for smart city feasibility, masterplanning, and infrastructure investment validation.

DBF is designed for mission-critical, large-scale facilities including hyperscale and colocation data centers with complex operational requirements.

DBF supports vertiport integration with existing airport terminals, validating airside/landside adjacency and passenger connectivity requirements.

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DBF handles complex mixed research environments, combining wet labs, dry labs, cleanrooms, and collaborative spaces, with full adjacency and infrastructure validation.

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DBF is designed for complex, mission-critical industrial facilities including multi-shed regional distribution hubs and automated fulfillment centers.

DBF is designed for complex, mission-critical campus developments including large technology headquarters with R&D, office, and amenity programs.

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DBF is designed for complex facility types including life science, technology, and R&D campuses with specialist infrastructure requirements.

DBF produces spatial analysis and comparison outputs formatted for planning authority review, supporting complex mixed-use planning applications.

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DBF handles single-facility and multi-shed campus configurations, testing operational flow and logistics routing across complex fulfillment hub designs.

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DBF supports specialist medical facilities including oncology centers, diagnostic imaging hubs, surgical centers, and integrated health campuses.

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DBF supports brownfield, infill, and air rights compact city scenarios, importing existing context to test development feasibility within tight constraints.

Generative design is the future of design. It quickly analyses the requirements and constraints and gives us several different options to choose from. It reduces the amount of time and effort of designers by a lot. Generative design software allows designers to generate designs and complete tasks in periods that would be humanly impossible when using more traditional software. The amount of design options generative design software can produce is truly mind-boggling. Ultimately, they’re much more numerous than anyone designer (or even one team of designers) could produce. When using generative design software, it’s straightforward to make changes and adjustments of any size to your design. Overall, generative design software can help designers make better products. It can be very cost-effective as a lesser workforce is required. The generative design presents unique possibilities for local, smaller-scale designers and makers too.

Digital Blue Foam (DBF) comes with integrated AI-powered generative design tools for architectures that use machine learning to deliver data-driven results. Other than DBF, there are tools like Autodesk’s Forma (formerly Spacemaker), Rhino’s Grasshopper, and Finch, that offer similar generative AI design tools for architectures.

Absolutely! We work with several large organizations to make customized versions of our software to optimize customer relations and project deliverables. With our clients we also work on custom data from their past projects or simply on specific typologies and efficiencies.

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DBF Mass includes parametric setback and offset controls to test zoning compliance scenarios. For automated compliance checking (shadow casting, sky factor, diagonal limits), see our Japan-specific version. Other regions require manual input of zoning parameters.


Generative design is being highly used in many fields of design. Especially in product design and now even in the AEC industry. It quickly analyses the requirements and constraints and gives us several different options to choose from. There are many examples to be listed. Architect Zaha Hadid revolutionized generative design by actually bringing great designs into form. One of the most outstanding examples is Haider Aliyev Center. Daiwa House Industry’s Urban Housing by Daiwa house industry in Japan uses generative design to create great living spaces in the very compact area provided. Autodesk buildings in Toronto are also included in the most excellent examples of generative design in architecture. Works of Alessandro Zomparelli and Layth Mahdi are just two of the most creative generative designers. They create products, vases, and even fashion using intriguing technology.

CAD focuses on 2D/3D drafting, while BIM coordination software integrates data, collaboration, and lifecycle management.

You can use any reasonable laptop and will be able to create your own design in minutes. Digital Blue Foam is currently optimized for the chrome browser. For large scale urban projects, we recommend using a desktop computer.

“The art of arranging structures on the land and shaping the spaces between; an art linked to architecture, engineering, landscape architecture and city planning” by Kevin Lynch. Kevin Lynch outlines eight stages of site planning. The first one is defining the problem. This includes analysis of brief and requirements are given, and then to define a problem. The second stage is programming and the analysis of the site and user. This gives the idea of how could the site be addressed. Schematic design and cost estimate gives a preliminary idea of cost and design. Developed design and detailed costing confirm everything required for the design. Preparing contract documents with designs and cost estimates is stage five. Stage six is bidding and contracting. Stage seven is the construction of the building according to the site, followed by stage eight, followed by occupation and management of the building or space.

We provide extensive project contextual data, encompassing maps, satellite imagery, 3D terrain models, building information, road networks, land use, social media data, and local weather station-based wind and solar data. Additionally, we offer flexibility to integrate proprietary data into your solution, either on-premises or via a hybrid configuration, seamlessly integrated with our spatial analytics.
Learn more about our data sources

Design, in a nutshell, is a solution to any problem. A good design, to add further, is an efficient solution to any problem. Building design refers to solving a problem, a challenge, of how buildings can function, and more importantly, function efficiently. The building design is a task that incorporates various aspects of society by a study into their need in a building design. Thus, the role of a building design is more than solving the problem of accommodation. It has to function as per the occupant requirements, much more like the requirements and context of the place it’s being built in. The role of building design is to add identity, comfort, and sustainability (not just in energy consumption but also in financial sustainability). It must be functional for occupants, pleasing to humanity, and grateful to nature.

Whenever building design or urban design processes start, a site is to be selected, or it is appointed. A site analysis is a part of the architectural process that includes a study about the site where the building is to be made. Site analysis should include the climatic, geographical, historical, social, legal, and infrastructural context of a given site. There are many ways to represent site analysis. The climatic analysis includes the study of climatic data of a particular region where the site is based. For that, charts are included, for example, sun path, and wind rose. Geographical analysis can include soil type examination and water table. Social and historical analysis, along with context analysis, can give an idea of orientation and typology. Also, legal aspects and by-laws are reviewed under site analysis. It is done in 3 stages- research, analysis, and finally synthesis.

Software that validates walkability, amenity proximity, and mobility coverage for developments targeting 15-minute city benchmarks.

A sustainable city is an urban area designed to balance economic growth, environmental protection, and social well-being.

AI masterplanning software generates multiple feasible land use and density scenarios from project requirements, validates them against KPIs, and enables rapid comparison.

Software that generates and validates airport terminal layouts, gate configurations, and passenger flow scenarios before detailed engineering design and investment commitment.

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BIM architecture software helps architects and engineers create, visualize, and manage designs with enhanced collaboration tools

Building design is the science of planning and executing a design to physically combine all the features an occupiable building must-have. It involves taking the ideas and requirements of clients as a challenge, processing all those creatively into a design and delivering the output in a way that it can be physically constructed. Complete building design solution deliverables include plans, façade treatments, functional presentation, services and construction process details, all in the form of technical drawings and models. All these reflect a single idea or a concept that is intertwined and is the base of how the building is to be designed. A building design amalgamates science, art, technology and philosophy that would support the given requirements. It gives an epicentre for architecture, engineering and construction industries to revolve around it as one.

Software that automates urban growth feasibility by validating land use, density, infrastructure, and access scenarios before detailed design.

Software that generates and validates high-density, mixed-use urban development scenarios against liveability, sustainability, and infrastructure KPIs.

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Software that generates and validates complex manufacturing facility layouts, production flow, process adjacencies, specialist infrastructure, and safety zoning, before BIM design begins.

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Software that generates and validates data center floor plans, capacity scenarios, and infrastructure layouts before detailed BIM design begins.

Software that generates and validates EV manufacturing facility layouts, production flow, process adjacencies, and infrastructure, before detailed engineering design begins.

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Software that validates EV charging site feasibility, grid capacity, layout options, demand modeling, and planning constraints, before investment is committed.

Software that generates and validates depot electrification scenarios, charging infrastructure, grid demand, and layout, before infrastructure investment is committed.

Software that generates and validates warehouse and fulfillment center layouts, including automation zones, dock configurations, and flow corridors, before BIM design begins.

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Generative design is an iterative process that helps us explore designs. This is useful to everyone, designers, architects, and engineers. It harnesses the power of artificial intelligence (AI) to develop new high-performance design iterations that help solve complex challenges, reduce component weights and manufacturing costs, scale customization, and optimize performance. The inputs are a set of constraints that are met by the designs later. Unlike traditional design, where the process begins with a model based on an engineer’s knowledge, generative design begins with design parameters and uses AI to generate the model. By modifying the design parameters in an increasingly refined feedback loop, designers can find highly optimized and customized design solutions to a wide range of design challenges, such as making product components lighter, stronger, and more cost-effective. Generative design applications exist across many industries—from aerospace and architecture to manufacturing and consumer goods.

Generative design is an iterative design process that helps us explore more design options in lesser time. By modifying the design parameters in an increasingly refined feedback loop, designers can find highly optimized and customized design solutions to a wide range of design challenges, such as making product components lighter, stronger, and more cost-effective. It is used for various operations and in several fields, ranging from aerospace engineering to architecture. It can design in a minute a joint in a truss, to even a whole building form. It is instrumental in designing furniture with a set of given constraints. Everything from chairs, tables, beds, and essential furniture, to advanced technical furniture can be designed using this. It is highly recommendable to be used for product design. It gives a new form to anything, according to our requirements.

GIS (Geographic Information System) is a technology that collects, stores, and analyzes geospatial data. Spatial analysis uses GIS (or other tools) to examine spatial relationships, patterns, and trends to support decision-making. Example: GIS is used to map crime incidents and then conduct spatial analysis to define crime hotspots

Software that validates hospital layouts, departmental adjacencies, patient flow, infection control zoning, and infrastructure, before detailed clinical BIM design begins.

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Software that generates and validates program layouts for mixed-use innovation facilities, including labs, offices, and collaborative spaces (before BIM design begins.

Software that models how land use across a region will change over time, based on demographic, economic, and infrastructure inputs.

Software that generates and validates logistics facility layouts, including dock configurations, flow corridors, and automation zones, before detailed BIM design begins.

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Software that generates and validates medical facility layouts, clinical programs, patient flow, adjacencies, and medical infrastructure, before detailed BIM design begins.

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Software that generates and validates mixed-use program scenarios, combining residential, commercial, retail, and civic uses, against viability, circulation, and operational KPIs.

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Software that validates port layouts, berth configurations, logistics flows, and waterfront access before detailed engineering design begins.

Software that generates and validates railway station layouts, platform configurations, passenger flow, interchange access, and retail programming, before detailed infrastructure design.

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Software that generates and validates research laboratory layouts, adjacency requirements, containment zoning, and infrastructure provisions, before detailed BIM design begins.

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Whenever building design or urban design processes start, a site is to be selected, or it is appointed. Site planning is assigning functions to spaces in a site to properly utilise all the resources at disposal. It includes processes of research, analysis and finally, a synthesis of the results found. It includes a detailed study of various aspects like location and neighbourhood context. The zoning of the neighbourhood is crucial as it determines by-laws according to the purpose of the space. The by-laws include the FAR, ground coverage, parking norms, and restrictions. The subsurface features and climate analysis of the location help the design to be climate responsive. Circulation is examined to study important roads and linkages. Availability of utilities is also a factor checked upon under site planning. Along with this, the socio-cultural background study is also done to make the study the population.

Urban planning is a process focusing on development and design of land use and built environment, it also includes a whole set of social and economic activities. Whereas site planning is a subset of urban planning, arrangement and development of site of elements, like buildings, roadways, subplots, utilities, landscape elements, topography, water features, and vegetation. Site Planning is generally done by city planners to develop and design a clear organizational interior and exterior plan for a community.

Software that integrates urban data systems and validates smart city scenarios, including transport, energy, accessibility, and sustainability, before infrastructure investment.

Sustainability in building construction involves designing and constructing structures that minimize environmental impact, optimize energy use, and utilize renewable resources to ensure long-term efficiency and resilience.

Sustainability in building design is how efficiently the building saves resources while being built and in operation. A building is designed as per functional and aesthetic requirements. Still, it becomes sustainable only when it is a building that doesn’t add to the amount of carbon and doesn’t waste resources, and many more criteria that help the environmental health. Some aspects that are taken care of are life cycle assessment and structure design efficiency. A Life Cycle Assessment is the systematic analysis of the potential environmental impacts of products or services during their entire life cycle. Apart from this, attention is paid to details like material efficiency, waste reduction, and leaving over the most negligible carbon footprint. Water efficiency and energy efficiency are managed through various methods. There are many steps taken to make sure that the users would have indoor environmental quality enhanced, and the building could achieve thermal comfort.

Sustainability in urban planning means designing cities and communities with a balance of environmental, social, and economic considerations. It includes efficient land use, green infrastructure, renewable energy integration, and sustainable transportation.

Sustainable building engineering applies engineering principles to create energy-efficient, low-impact, and resilient structures. It includes designing HVAC systems, water management, renewable energy integration, and structural efficiency for sustainability.

Urban planning places all the features, including buildings, landscapes, neighborhoods, etc., in a town or city. Sustainable urban planning refers to planning to locate the parts of town so that people can witness green buildings, mixed-use developments, walkable neighborhoods, open spaces, alternative energy sources, transit options, accessible amenities while keeping a balance with being approachable, attractive, and environment friendly. A sustainable urban environment also conforms to the idea that a city can be organized without excessive reliance on the surrounding countryside and power itself with renewable sources of energy. Self-sufficiency and resilience are also some factors that cities and towns can achieve to be sustainable. The concept of 15-minute cities encourages sustainable urban planning while keeping the infrastructure accessible to all. These cities have all the amenities a regular household needs within 15 minutes of walking or bicycling and are a great way to reduce dependence on motor vehicles.

Software that generates and validates technology campus layouts, workplace programs, amenity provision, and infrastructure, before detailed BIM design begins.

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Green Building focuses on environmentally friendly construction methods, energy efficiency, and waste reduction. Sustainable Building goes beyond just being eco-friendly—it also considers long-term social and economic factors, such as affordability, durability, and adaptability to future needs.

Urban Design is the designing of the physical features of a town or a city. It mainly deals with designing features that a city has to provide, primarily for public use. Urban Design aims to create public-friendly and engaging environments. It should be visuallyappealing to people, must accommodate necessary facilities, and must be inviting. The main points to be addressed in urban design are that it should be accessible to all and inclusive of people and nature. Such projects are generally given to individual firms or a team of 2-3 firms.On the other hand, Urban Planning is planning of placing all the features, including buildings, landscapes, neighbourhoods, etc. It requires more zoning of spaces for accessible transit and usability rather than designing. The government mostly does such projects in collaboration with a team of experts and firms and the public, the users.

Urban planning is zoning and laying out all the features in a city or town. It is a systematic approach to planning places or zones in a city so that everyone can easily access what they require. It is a necessary process that let cities grow sustainably. It is essential as it has a significant role in the development of a city in all aspects. It organizes cities, so navigation and transportation grow easier. It provides a better quality of life as it is altered to the needs of the public. It aids economic growth and development. It makes the cities more environmentally responsible and resilient. Infrastructure is improved with better sustainability. Everything is more accessible in a well-planned city, so education and healthcare facilities grow nearer. It gives a reliable waste management system and, most importantly, a greener transportation system.

San Francisco, CA is considered the most sustainable city in the US due to its renewable energy initiatives, waste management policies, and green building regulations.

Urban design is a process and an outcome of designing physical places where people live. The role of urban design is to be a medium or to create a space where people can easily be attracted and engaged in activities as a society. The design can be a cultural or social identity, which binds people to it, and as a result, gives a sense of togetherness. An urban design must foster social interaction and create a lively environment for the public to enjoy. An urban design aims to create a space where all living beings feel included and welcomed. It must be enduring and enhancing to diversity, comfortable, vibrant, and engaging. The space should be safe, walkable to, and most importantly, responsive to the local context of the place, as that is the point where the public can have a sense of togetherness, something common to connect upon.

Software that generates and validates interchange layouts, passenger flow scenarios, and capacity configurations for multimodal transport facilities.

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Urban design is the designing of the physical features of a town or a city. It mainly deals with designing features that a city has to provide, primarily for public use. The urban design aims to create public-friendly and engaging environments. It should be visually appealing to people, must accommodate necessary facilities, and must be inviting. The main points to be addressed in urban design are that it should be accessible to all and inclusive of people and nature. The urban design process needs to address everything in the context, including topography, landscape, environment, and all the biggest to most minor details. It should respond to the social and economic fabric. It should aim to create an attractive public realm, a responsive urban form, and an appropriate scale.

Urban planning is placing all the features, including buildings, landscapes, neighbourhoods, etc., in a town or city. It requires more zoning of spaces for accessible transit and usability. Zoning here is a process where the areas are arranged according to the purpose— residential, commercial, industrial, market places, and community spaces. The basis of planning is that everyone should have easy access to all the town or city zones. The main thing that is addressed is moving through a city, the transportation facilities and environment, alongside strategic placement of spaces of different purposes. Organic cities can’t have all of these features, but new concepts like 15-minute cities add to urban planning. A good urban planning model makes all the spaces accessible to everyone living there, and it ensures the distance of travel is the least, to be environmentally responsible, feeding in to the need of the hour.

Software that generates and validates vertiport layout scenarios, landing pads, taxiways, passenger processing, and airspace constraints, for UAM infrastructure projects.

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DBF supports wet labs, dry labs, cleanrooms, industrial testing labs, clinical diagnostics, quality control, and university science facilities.

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An urban design aims to foster togetherness; thus, creating a sense of common interest can make a good urban design. But that isn’t enough, and there is much more to be thought of. First of all, the design should have a good concept that goes well with people and is attractive as a form. Next, the design must have something that people could relate to; rather than just a beautiful form, it must be inclusive. A good urban design must have a local significance and must be responsive to the context. Urban structure, urban grain, density, and zone must be addressed to make the design comfortable for everyone. On a micro-scale, factors like streetscape, façade, interface and materials also contribute towards a good design. So basically, a good urban design can blend in and stand out at the same time.

Small? Medium? Large? Extra-Large? Digital Blue Foam does it all. To find out more, check out our user-achievements. 

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DBF supports container terminals, bulk cargo ports, ferry terminals, mixed-use waterfronts, and legacy dock repurposing projects of any scale.

Spatial analytics is a broader term that generally encompasses space and location, such as indoor building layouts and floor plans, outer space or virtual environments, etc. On the other hand, geospatial refers to specified data tied to a geographic or location-based setting, such as longitude and latitude, zip code, etc.

Using multi-objective optimization, our tool is designed to meet multiple targets efficiently and effectively. However, there are instances where trade-offs or conflicting objectives arise. For example, you might specify a low maximum height for a building while also requiring an extremely high total floor area.

In such cases, our user interface will gently alert you to the conflict. The system then provides a trade-off solution, balancing the conflicting requirements as best as possible. This ensures you are informed about the trade-offs and can make decisions based on a clear understanding of the design limitations and possibilities.

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Building design has its significance, which can be proved in multiple ways. Building design includes the design of a concept to execution of its manifestation. So, the designs have to be responsible in many aspects. Each stage of design should be appropriate and safe for society and users. The site should be strategically located to favour the occupants, and the purpose should match the context. The concept must be very thoughtful so that it is pleasing to people and gives the building an identity. The design must be sustainable and engaging. The planning must be done considering proper circulation and space making for the users. It should be structurally stable and safe. And lastly, it should be inclusive of people, nature, and ideas. This is why there is a detailed study of many aspects of life before designing.

Generative design is the technology that is going to change the design industry in many ways. Designers can understand that as satisfying as designing is, the job can be stressful a lot of times. From initial analysis to deriving a concept and then arriving at a form, the task is tedious as this process is not linear. The process is like a web where one needs to come back at various design points while simultaneously keeping a tab on others. This takes a lot of time and effort. Generative design is a way that can give designers hundreds of options based on the constraints that are fed as input in minutes. This works on parameters that control the design, which in turn can be controlled by us. This is how generative design saves a lot of time, costs and effort, and thus it is essential to the design industry.

Spatial visualization transforms complex location-based data into interactive maps and models so you can analyze patterns, relationships, and trends and make data-driven decisions.