# NeoBharat Knowledge City — 2035 exterior design plan

**Where Knowledge Becomes a City.**  
An early-stage Malpani Group vision.  
Design study 03 · 10 September 2026 · Hypothetical 2,700-acre site.

## 1. The direction

Create a university city with the scale of a landscape and the intimacy of a college court. Its main identity is contemporary: research buildings, flexible teaching blocks, planted residential neighbourhoods and public waterfronts. A small family of richly articulated classical buildings supplies the ceremonial identity. Forested foothills and lakes form the setting; the architecture sits within that setting rather than occupying every available acre.

The imagined horizon is 2035. Plausible visible technologies—electric shuttles, photovoltaic roofs, solar shade structures, screened service equipment and shared mobility—carry the future-facing character. The city does not rely on flying vehicles, implausible unsupported buildings or speculative technologies to look advanced.

The current scope is **exterior architecture, landscape, circulation and public space**. No interior layouts, construction documents, institutional capacity or investment assumptions are included. This plan sets a design direction and an editable model to work from. The detailed ornament and vegetation of the mood images are visual ambitions; the interactive model uses simplified geometry suitable for a browser.

## 2. Site, scale and geography

The boundary is a hypothetical rectangle, **3,800 m × 2,875.397984 m**. Its enclosed area is **10,926,512.34048 m² = 1,092.651234 hectares = exactly 2,700 international acres**. The rectangle is a transparent modelling device, not evidence of an acquired parcel. North is provisional. There is no geographic coordinate reference system or claimed survey alignment.

Buildings occupy the relatively level central and southern portions. Forest and lake landscapes shape the north and west. A mountain backdrop extends beyond the property boundary to establish a larger setting. **Off-site context is excluded from the acreage.** The terrain is procedural and hypothetical; its slopes are not suitable for engineering quantities or a real-site cut-and-fill calculation.

Two irregular lake forms anchor the model: a western lake roughly 970 × 600 m and an eastern lake roughly 980 × 490 m. These are bounding dimensions, not water-area measurements. Their shapes, banks, water levels and ecological function remain assumptions. Paths and piers demonstrate a relationship with water without establishing a validated floodplain, dam, catchment or water balance.

## 3. Revised gross land budget

This is a new design-study interpretation of the user's expanded 2035 brief. It is deliberately identified separately from the original eleven-district programme retained in the earlier website. It is not an approved amendment to that programme. These are gross planning envelopes; the displayed model does not claim that district polygons have been measured to these numbers.

| Planning envelope | Acres | Design purpose |
|---|---:|---|
| Academic heart | 330 | Indicative gross planning envelope |
| Research neighbourhoods | 240 | Indicative gross planning envelope |
| Student & family living | 360 | Indicative gross planning envelope |
| Innovation & applied research | 100 | Indicative gross planning envelope |
| Aviation precinct & airstrip reserve | 210 | Indicative gross planning envelope |
| Civic & cultural places | 71 | Indicative gross planning envelope |
| Hotels | 9 | Indicative gross planning envelope |
| Sport & wellbeing | 110 | Indicative gross planning envelope |
| Amusement park | 10 | Indicative gross planning envelope |
| Streets, transit & public spaces | 270 | Indicative gross planning envelope |
| Utilities & service grounds | 80 | Indicative gross planning envelope |
| Lakes, wetlands & water corridors | 180 | Indicative gross planning envelope |
| Forest, foothills & green network | 650 | Indicative gross planning envelope |
| Future flexibility | 80 | Indicative gross planning envelope |
| **Total** | **2,700** | |

Avoid double-counting in the next planning stage: a building's internal courtyard belongs to its district envelope; the separately counted city-scale green network and transport corridors must be reconciled through exclusive GIS polygons. The large forest and water allocations establish intent and are not verified environmental performance metrics.

## 4. Spatial structure

### The academic heart

Enter from a southern ceremonial gateway. A broad, landscaped pedestrian spine leads toward the Grand Library. The sequence should read as gateway, shaded walk, small gathering places, formal forum, library and wooded horizon. The sports grounds sit beside this axis so the principal walk remains continuous.

The Grand Library is a limestone composition with a central dome and two lower wings. The convocation hall and Museum of Ideas belong to the same architectural family but have distinct proportions. Formal gardens and a shallow water feature give the civic forum a recognisable centre. Contemporary teaching buildings frame the wider campus without reproducing the library's ornament everywhere.

### Research by the lake

The eastern research zone is arranged as several courts rather than a collection of isolated glass objects. Paired laboratory bars, shared pavilions and planted outdoor spaces provide a repeatable research neighbourhood. Computing, materials and bioscience are illustrative programme names, not confirmed institutions or operators.

The Innovation Beacon is a taller building used for orientation. Most laboratories remain five or six principal levels. Their exteriors show shaded structural bays, entrance canopies, roofs with photovoltaic arrays and screened plant. The outer service edge accommodates larger applied-research workshops, allowing the public academic heart to retain a pedestrian character.

### Living districts

The western college district mixes contemporary courts and selected classical residential colleges. The southern and eastern neighbourhoods add family housing and visiting-scholar accommodation. Garden homes form a lower edge beside the landscape.

Markets, a school, a health centre and sports facilities appear in the model so that living is represented by more than bedroom blocks. They are illustrative provisions and are not sized from an agreed population. The next brief must establish residents, students, workers and visitors independently; avoid deriving occupancy simply by multiplying modelled floor area by an assumed density.

### Forest and mountain edge

Retain the wooded setting as a continuous system. Protect views into the hills from the civic axis. Keep major development away from the steepest modelled land. An observatory is a small destination at the forest edge, not an excuse for hillside urbanisation. The conceptual tree population includes both on-site landscape and off-site context; it is not a planting quantity or a biodiversity assessment.

## 5. Architectural grammar

The intended balance is approximately **80% contemporary fabric and 20% classical or transitional character**, judged by overall visual presence rather than a certified floor-area ratio.

| Family | Exterior vocabulary | Where to use it |
|---|---|---|
| Contemporary research | Clear structural grid; vertical shading fins; restrained glass; pale mineral facades; planted roofs; screened plant | Research, teaching, innovation |
| Classical civic | Rusticated base; disciplined window rhythm; pilasters; deep porticoes; substantial cornices; copper dome or hipped roof | Library, convocation, museum, entrance |
| Transitional college | Courtyard form; warm stone or terracotta; shaded ground floor; modest pitched or flat roofs; restrained classical detail | Residential colleges and selected academic wings |
| Everyday city | Balconies, planted entries, active ground floors, small courts, durable shade and roof infrastructure | Apartments, local services, neighbourhood streets |
| Landscape structures | Light bronze or timber-toned elements; supported decks; modest pavilions; dark low-reflectance components | Lake edge, forest paths, transit shelters |

The model's modern facade bays are typically around 6 m; academic/research principal floors are approximately 4.4 m high, living floors about 3.35 m and classical floors about 4.8 m. These are explicit modelling rules, not structural design. The Grand Library's principal footprint is 128 × 84 m before wings, portico or other projections. Detailed dimensions are in `city-manifest.json`.

Classical architecture should be elaborate in the right places. Prioritise silhouette, plinth, facade order, entrance depth and roofline before carving. Future high-detail work can add arch voussoirs, carved capitals, balustrades, dormers and stone variation as reusable modules. These must respect a believable load path and avoid thin decorative elements that read as floating geometry.

Use one material family across both eras: warm limestone, pale mineral surfaces, dark bronze, muted oxidised copper, shaded blue-green glazing and natural planting. Avoid a different unrelated palette for every district. Dense ornament should not compromise entrance legibility, accessible routes or everyday maintenance.

## 6. Reference-led mood board

The website contains three original Higgsfield / GPT Image 2 atmosphere images: a city aerial, a classical/modern academic forum, and a research waterfront. They are **AI concept imagery**, not photographs of a project or renders of the Blender file. The reference wall contains six real exterior photographs linked to their official sources; source rights and credits remain attached.

| Reference | What it contributes | NeoBharat interpretation |
|---|---|---|
| [NUS SDE4](https://cde.nus.edu.sg/arch/cdig/cdig-sde-4/) | Protective roof, structural rhythm and relationship to trees | Deep shade as a primary architectural element |
| [NTU Learning Hub / Heatherwick Studio](https://heatherwick.com/project/learning-hub-the-hive/) | Outdoor garden balconies and tactile facade surfaces | Small outdoor learning places within large institutions |
| [Cornell Tech campus](https://tech.cornell.edu/campus/) | Research, residential life and a public waterfront | A campus integrated with everyday city space |
| [Radcliffe Camera / Bodleian Libraries](https://www.bodleian.ox.ac.uk/libraries/radcliffe-camera) | A recognisable classical library and academic setting | A grand civic focus designed as an original composition |
| [Trinity College Dublin Museum Building](https://www.tcd.ie/geology/about/museum-building/) | Rich masonry and ordered institutional facades | Selective ornament concentrated on public cultural buildings |
| [IIT Hyderabad](https://co.iith.ac.in/) | Indian campus courts, repeated buildings and outdoor links | A campus form connected to its regional context |

Planning lessons also draw on [ETH Hönggerberg's campus development](https://ethz.ch/en/campus/development/hoenggerberg.leftnav.html), [NUS University Town](https://uci.nus.edu.sg/campus-life/campus-services/utown/) and [HOK's KAUST campus account](https://www.hok.com/projects/view/king-abdullah-university-of-science-and-technology-2/): compact growth, combined living/learning and meaningful shade. These are independent precedents. No institution is presented as a NeoBharat partner, tenant or endorser.

## 7. Liveability and movement

The model separates the ceremonial pedestrian spine, academic access streets, a wider mobility loop and the applied-research service edge. Smaller living lanes define courts rather than sending all movement down a single monumental road. Transit shelters and electric shuttle geometry make the proposed movement system legible.

For the next design stage, target continuous shaded walking routes, convenient cycle access and transport stops within a comfortable walk of major destinations. Test actual network distance and terrain before claiming five- or ten-minute neighbourhoods. A nominal 500 m walk is not equivalent to a connected, shaded, accessible route.

The current road widths are illustrative: approximately 22 m for the outer carriageway, 15–16 m for key internal carriageways and 9–13 m for local living lanes, with additional paved margins. These do not represent approved right-of-way or road engineering. Junction turning, gradients, emergency access, kerbs, drainage, loading and accessible crossing details require subsequent design.

Water and woodland should support comfort as well as imagery. Establish monsoon routes, banks and maintenance access from a real survey. Select locally appropriate species after climate, soil and ecological work. The generic tree geometry in this version represents canopy and spatial character, not botanical selection. Forest retention and mature planting are visible throughout the model's phase slider as a landscape baseline, not as a claim that new trees mature instantly.

## 8. Years 1–10

The website's sequence is illustrative: Year 1 corresponds to 2026 and Year 10 to 2035. It is not a delivery schedule or commitment. Objects appear according to their recorded phase; the building schedule identifies each building's modelled year.

- **Years 1–2:** landscape baseline, principal access, initial teaching, the gateway and essential services.
- **Years 3–4:** library and early research courts, residential neighbourhoods, public space and additional academic wings.
- **Years 5–6:** sport, applied research, museum and further living districts.
- **Years 7–9:** later research and housing, taller innovation landmark, observatory and remaining modelled buildings.
- **Year 10 / 2035:** the complete shown scenario, used as the default view. This model does not add a new building in Year 10; the endpoint represents consolidation and operation.

Real phasing should follow demand, funding, infrastructure capacity, institutional partnerships and approvals. Construction logistics and temporary works are outside the visual scenario.

## 9. Blender and web production

The editable source is created in Blender 5.2 through the installed Higgsfield add-on's local bridge. It uses a dedicated NeoBharat scene and semantic collections for buildings, streets, landscape, furniture and cameras. The source script is included so dimensions and repeated facade rules remain inspectable. The `.blend` file is the design source; the GLB is the portable web asset.

For export, a temporary scene merges material/phase groups. The original detailed collections remain in the editable file. The web asset uses Draco compression with a local decoder, and the website loads it only when 3D is requested or the desktop presentation selects 3D. Materials are portable Principled/PBR materials; road and paving textures reuse documented Poly Haven assets from the earlier study. Lighting in Blender and a browser will differ.

The browser offers whole-city and destination cameras, orbit, zoom, reset, the year slider, building schedule and a complete SVG masterplan. The mobile default is the 2D plan. A failed or unsupported WebGL session returns to the plan with a visible retry option. Reference images have source-link fallbacks if remote image delivery fails.

Performance targets for this iteration: compressed model below 8 MB; no render loop when the scene is idle; pixel ratio capped at 1.5 desktop / 1 mobile; two decoder workers; 160 or fewer geometry groups. The scene still contains around 1.5 million triangles, so mobile 3D is optional and no universal frame-rate guarantee is made. Further asset refinement should add local levels of detail before increasing geometry density.

## 10. Acceptance and next design decisions

Verify the exact boundary area, the 2,700-acre land-budget sum, building dimensions, unique schedule entries, phase ranges and portable model validation. Inspect rendered aerial, forum, waterfront and plan views; check road and lake relationships and principal footprint intersections. In the browser, exercise destination cameras, both viewing modes and phase endpoints. Keep the original research-quarter study accessible.

The deliverable is a complete **concept-scale exterior city model and design direction**. It is not photogrammetry, a detailed BIM model or construction-ready masterplanning. Before using it as a real development plan, replace the hypothetical rectangle and terrain with a confirmed survey, establish institution and population briefs, commission hydrology and ecology, reconcile exclusive land-use polygons and design the movement/utility networks. Those decisions are inputs for the next professional planning stage, rather than concealed assumptions in this visual model.

The next visual refinement should focus on the Grand Library and one research/living street at a time: authored stone and facade textures, detailed canopy species, realistic pavement edges, supported shade structures and stronger street-level composition. Maintain the city-wide model as the organising source while enriching those selected exterior scenes.


## Exterior expansion: aviation, hospitality and leisure

This revision develops the same city layout. Its library, academic heart, neighbourhoods, lakes, sport and mountain setting remain. Five applied-research workshops and the eastern service routes are repositioned inside the existing boundary to accommodate aviation. The urban-services building is moved to the southern service frontage. The outer acreage is unchanged.

### Exact comparison plots

| Place | Plot dimensions | Area | Share of city |
|---|---|---|---|
| Five-star Grand Palace Hotel concept | 150 × 134.89521408 m | 5 acres | 0.185% |
| Four-star city business hotel concept | 150 × 107.916171264 m | 4 acres | 0.148% |
| Discovery Park amusement park | 200 × 202.34282112 m | 10 acres | 0.370% |

These three rectangles are measured. Their accommodation, operating capacities and star classifications are unestablished. The remainder of the gross land budget stays indicative. The aviation allocation is 210 acres, reallocated from applied research, forest planning allowance and future flexibility; its airside reserve alone does not represent the entire allocation.

The palace hotel adds a seven-storey central building, five-storey wings, copper dome, porticoes, arrival fountain, pool and gardens. The business hotel is a contemporary ten-storey building with a covered arrival and parking. Discovery Park contains a 44 m diameter observation wheel, compact coaster, carousel, drop tower, cafes, queue rails and pedestrian paths. Ride geometry is for exterior planning and visual scale, not ride engineering or certification.

### Aviation engineering and airstrip

The eastern edge contains a faculty building, aircraft-systems and structures/propulsion hangars, a learning tower, apron and parallel taxiway. The illustrative runway is 2,200 × 45 m, with end markings, edge lights and a limited modelled ground buffer. Its placement is not evidence of operational feasibility. The retained mountain context makes obstacle analysis especially consequential; wind, elevation, temperature, approach/departure paths, land requirements, noise, pavement strength and statutory aerodrome requirements must be assessed separately. The visual reserve is not a certified runway safety area.

An original Gulfstream G650ER exterior study is parked on the apron. Manufacturer dimensions establish a 30.40 m length, 30.35 m span and 7.82 m overall height. The exterior includes swept wings, winglets, rear engines, oval windows, landing gear and a T-tail. This is a dimensionally informed simplified model, not licensed manufacturer CAD. No ownership, order, partnership or endorsement is implied. [Gulfstream technical sheet](https://assets.gulfstream.aero/downloads/22_464552_G650ER_Product_Sheet_PROD_DAM.pdf).

The manufacturer's published takeoff distance is conditional on stated test assumptions; it is not used here to assert suitability of this hypothetical runway. Aviation feasibility remains open.

### Materials and a guided exterior tour

Roads use Poly Haven's Asphalt 02 base-colour, OpenGL normal and roughness maps at the asset's three-metre physical scale. Two-kilopixel maps are packed into the editable Blender file, with one-kilopixel versions exported for the web. Kerbs, dashed lines, edge markings, drainage grates, crossings, tactile pads and cycle lanes supplement the surface texture. [Asphalt 02, Rob Tuytel](https://polyhaven.com/a/asphalt_02), [CC0 asset licence](https://polyhaven.com/license).

The city adds frontage paths, cafe tables and parasols, benches, EV bays, parking, bicycles, pedestrians and branching leaf geometry for selected close-view trees. Distant vegetation remains simplified to keep the full city practical to load.

An eleven-stop guided tour moves from the full 3.8 × 2.88 km setting to arrival, academic streets, the forum, both hotels, the amusement park, aviation, the aircraft, runway and lakes. Visitors can pause, step through stops or choose any of fourteen viewpoints. Camera transitions run only during movement and honour reduced-motion preferences. The year slider remains available; starting a tour shows the complete 2035 concept. The mobile default remains the 2D plan.

This is a more detailed, navigable planning concept. It is not a photoreal digital twin. The existing Higgsfield mood images communicate a richer architecture and atmosphere than the geometry currently reproduces. Further realism should develop selected buildings, species-specific vegetation, terrain and local detail with measured site inputs and view-dependent levels of detail.