Warehouse and Logistics CGI

The parent service covers B8 warehouses and logistics facilities, with specialist sections below for distribution, fulfilment, cold storage, last-mile, and freight-led schemes. Where a brief spans a logistics park or multi-building estate, the CGI scope includes the gatehouse approach, security perimeter, HGV marshalling yard, dock face, trailer parking, and boundary landscape context.

Warehouse CGI Pricing Guide

Big-box warehouse CGI in the UK typically costs between £12,500 and £28,000 for a six-frame planning and marketing package. Line items, verified-view uplifts, and animation add-ons are quoted separately below. The ranges shown are StratumCGI's published guide figures for UK big-box warehouse commissions in this typology class.

Model Reuse Economics and Delivery Workflow

Operationally complex B8 schemes need imagery that resolves circulation, dock sequencing, and site access before planning review or pre-let launch. The approved model can then support verified planning views, leasing imagery, investor crops, and occupier review frames without rebuilding the scheme for each audience. Cross-dock operations are configured within that model when dual-yard flow or trailer sequencing needs to read clearly.

The shared model base serves three commercial audiences inside a four-week production cycle: planning officers reviewing the submission, leasing agents briefing occupiers, and investors assessing covenant strength. One model replaces three briefs, three schedules, and three marketing budgets with one commercially coherent workflow.

For occupier profiles, planning-evidence requirements, and per-type CGI brief checks, use the UK warehouse typologies guide for developers.

Speculative and Build-to-Suit Warehouse CGI

Build-to-suit warehouse CGI shows how a speculative warehouse visual changes when a named occupier needs specific dock doors, racking, office fit-out, yard movement, ESG features and pre-let presentation views.

StratumCGI can model the baseline warehouse once for planning and agent marketing, then reuse the same approved geometry for a build-to-suit occupier version. The frontage, massing, service yard and planning context stay consistent while the CGI shows the operational changes that matter to the tenant, investor and letting team.

That makes the image set useful before occupier sign-off, because the same model can show the market-ready warehouse, the agreed fit-out direction and the pre-let pack without rebuilding the visual context from scratch.

Move the slider between speculative warehouse CGI and build-to-suit occupier version

The slider shows how one warehouse CGI model can move from a speculative marketing visual to an occupier-specific pre-let presentation without changing the approved planning context.

Distribution Centre CGI

For the full deep-dive on pallet racking, HGV dock operations, deep yard geometry, and neighbour-amenity proof, see our dedicated Distribution Centre CGI page. The section below stays as a parent-level summary inside the warehouse and logistics cluster.

Distribution centre CGI captures the scale, yard discipline, and dock rhythm that planners and occupiers need to evaluate before a scheme is approved or marketed. A typical scheme spans 200,000 to 1,000,000 sq ft, with clear internal heights of 15 to 21 metres, 50-metre deep service yards, and dock-leveller counts running into the dozens.

StratumCGI models distribution centre schemes from structural GA drawings to guarantee the imagery serves as a reliable communication tool for planning officers reviewing the transport assessment, not just a marketing image. This technical accuracy ensures:

• → Structural alignment: The steel frame grid, haunch depth, and roof profile match the engineer's specification.
• → Operational radii: Yard layouts are modelled with accurate turning arcs for 16.5-metre articulated vehicles.
• → Dock tolerances: Dock levellers are positioned at the precise floor-to-ground height differential.

Aerial compositions show the full estate layout, internal road hierarchy, and landscape strategy in a single frame. Ground-level stills demonstrate the principal elevation quality and the human-scale experience at the gatehouse, reception, or office entrance. Together, these outputs form the core visual package for a planning application and pre-let marketing campaign.

Recommended distribution centre CGI viewpoint

An elevated corner or low aerial view shows yard depth, internal road hierarchy, and dock rhythm in one frame.

What the image must prove

The render proves HGV circulation, service-yard capacity, loading-bay spacing, and estate legibility.

Primary review audience

Planning officers review access and transport logic first, while occupiers and investors assess operational scale and flexibility.

Within warehouse and logistics CGI, the distribution-centre sequence tests one verified model against planning scrutiny, leasing presentation, and 24-hour operational review.

The North West Logistics Hub case study (SCGI-004) shows an example of multi-unit distribution centre CGI.

For tall-format and automated variants exceeding 11m internal clear height, see High-Bay Warehouse CGI below for eaves heights 12 to 50m.

High-Bay Warehouse CGI

High-bay warehouse CGI shows whether eaves height, rack density, VNA movement, and ASRS massing read clearly in planning and occupier review imagery. Tall-format storage facilities range from 12 to 50m eaves, with clear internal heights of 11 to 48m. The brief separates a high-bay racking warehouse from a low-bay warehouse by clear height, MHE class, and pallet retrieval rhythm, so the visualisation keeps the building class legible without turning the section into an architecture or construction brief.

Stratum models high-bay schemes at the brief depth this building class demands. Eaves profile, upper-glazing tier density, ASRS massing, and VNA aisle rhythm resolve together in one coordinated view set, which suits e-commerce fulfilment operators and 3PL automation retrofits planning tall-format storage.

High-bay imagery must resolve the exterior eaves profile, the internal tier density legible through upper glazing, mezzanine structure where present, and the mass of automated storage and retrieval systems (ASRS) equipment at ground and elevated levels. The rendering challenge differs from standard warehouse visualisation. Tall format demands precise perspective control to register vertical stacking rhythm, and automated equipment must read as operational complexity rather than visual clutter.

• → Eaves and clear height: 12 to 50m eaves, 11 to 48m clear height. Modern e-commerce and logistics schemes target 30m+ for pallet density gain.
• → VNA aisles and guidance: 1.5 to 2.5m narrow-aisle widths. Guided turret-truck operation requires precision in rack spacing and floor-to-beam clearance visibility.
• → Power and automation readiness: Typical electrical load 500 to 3,000 kW. ASRS installations including AutoStore and competing cube ASRS systems require precision in equipment footprint and power distribution visualisation.
• → Racking density and throughput: High-bay typically achieves 2 to 3 times standard APR pallet positions, translating cubic footage into throughput gain that offsets the construction premium.

High-bay warehouse typology occupies the convergence zone where distribution and automation economics meet. Golden Triangle logistics operators, national e-commerce fulfilment teams, and 3PL providers commission this building class when pallet density and throughput per square metre become the dominant performance metric. The construction-cost premium resolves only when throughput or density uplift offsets the capex differential against single-storey schemes.

For standard pallet-distribution schemes, see Distribution Centre CGI above. For cross-dock and e-commerce throughput, see Fulfilment Hub CGI below.

Fulfilment Hub and Cross-Dock CGI

Fulfilment hub and cross-dock CGI explains two-sided throughput, dual-yard activity, and higher vehicle frequency in a way a single corner view cannot. Goods arrive at one dock face, are sorted or processed within the building, and depart from a second dock face on the opposite elevation.

Where the brief is specifically about parcel sortation, mezzanine pick-pack floors, van staging, and dual-sided dispatch, see Fulfilment Centre Architectural Visualisation. This parent section stays focused on fulfilment-hub comparison, cross-dock yard logic, and same-shell operating variants inside the wider warehouse and logistics CGI cluster.

UK cross-dock benchmarks are concrete. The 150,000 sq ft Hermes parcel-sorting facility at Omega Business Park (Omega North), Warrington (Chetwoods Architects, Hannan Associates MEP) sets the dual-yard automated parcel sortation reference. The Greggs PLC national distribution centre at Symmetry Park Kettering, a 311,000 sq ft cross-dock by Stephen George + Partners, and the adjacent 500,000 sq ft Tritax Symmetry cross-dock define current Net Zero in Construction and BREEAM Excellent expectations. The DP World London Gateway Logistics Centre by RPS Group sets the port-adjacent cross-dock case. StratumCGI uses those benchmarks as evidence cues for dock count, yard depth, parcel-sort flow, HGV swept paths, and trailer staging inside a single verified model.

The visualisation for cross-dock operations must demonstrate that both dock faces can operate simultaneously without vehicle conflict. StratumCGI models the full yard on each side of the building, specifically ensuring:

• → Dual-yard capacity: Trailer parking, reversing zones, and the internal roadway connecting both elevations are accurately mapped.
• → E-commerce massing: Mezzanine floor plates, automated sortation extensions, and high-density van dock canopies are rendered as distinct structural elements.
• → Operational identity: The scheme's appearance reflects its cross-dock purpose, rather than defaulting to the elevation treatment of a conventional warehouse.

The resulting visuals allow logistics operators to evaluate the throughput capacity before committing to a lease, and they give planners the exact evidence needed to assess the transport impact from both access points safely.

Recommended fulfilment hub CGI viewpoint

A ground-level two-sided elevation or elevated oblique view shows both active dock faces and the connecting yard logic.

What the image must prove

The render proves yard separation, dual-sided cross-dock capacity, trailer movement, and van flow without conflict.

Primary review audience

Logistics operators assess throughput first, while planners review circulation, access safety, and servicing impact.

Within warehouse and logistics CGI, the fulfilment sequence compares one logistics shell across standard throughput, cross-dock flow, and van-led e-commerce dispatch.

The dock-face and yard-discipline case study (SCGI-005) shows warehouse-led CGI for loading-bay rhythm and service-yard control.

For urban consolidation and regional operator depots, see Logistics Depot CGI for last-mile, urban, and warehouse depot facilities below.

Cold Storage and Temperature-Controlled Facility CGI

A cold-store CGI has to read as a cold store, not a recoloured shed. The lead view must show the insulated metal panel envelope, the roof-mounted refrigeration plant deck with screening, the dock elevation with thermal seals, and a yard organised around temperature-zoned vehicle movement. A BRCGS-grade pre-let review will check for all four; an image missing any of them fails that check on first inspection.

The thermal brief controls what the image contains. Temperature-zone boundaries fix the wall-line. Dock-seal positions determine the elevation rhythm and plant-screen height establishes how the roof reads at street level. Chilled, ambient, and service-yard vehicle flows set the yard fence position. A planning officer or occupier reading the scheme needs to locate every one of those constraints in the image, not infer them from the text.

StratumCGI models these elements from the mechanical engineer's plant layout and the architect's cladding specification, ensuring exact adherence:

• → Panel integrity: The insulated metal panel (IMP) system is rendered with correct joint widths and colour-matched to the manufacturer's RAL palette, with PIR or PUR core thicknesses of 80 to 200 mm read truthfully on the envelope.
• → Plant compliance: Plant screening is modelled as a distinct architectural element with its own material, height, and precise setback from the parapet.
• → Zone mapping: Ambient cross-docking areas, blast-freezing zones, and separated chilled/ambient vehicle movements are visually defined.
• → ASRS clear height: Tall single-volume cold stores with automated storage and retrieval systems are modelled at clear internal heights of 30 to 46 metres, with the rack-clad envelope and roof profile read correctly against the structural specification.
• → Refrigeration plant type: Ammonia (NH3), CO2 transcritical, and glycol secondary plant rooms are modelled to the mechanical specification, with screen geometry and acoustic enclosure rendered where supplied by Star Refrigeration, J and E Hall, or GEA.
• → Dock equipment: Dock seals, dock levellers, and dock shelters are rendered at correct opening sizes, with chilled and ambient docks visually segregated for grocery distribution and 3PL operations.

This level of detail prevents compliance risk during officer review, while providing the operational logic and annotated stills required for investor presentations.

Recommended cold storage CGI viewpoint

A front three-quarter exterior with visible rooftop plant and service yard shows the insulated envelope and screening strategy clearly.

What the image must prove

The render proves plant screening, insulated cladding specification, dock arrangement, and chilled-versus-ambient yard organisation.

Primary review audience

Planning officers assess rooftop plant impact first, while investors and operators review cold-chain logic and building credibility.

Within warehouse and logistics CGI, the cold-storage sequence frames one specialist envelope for baseline chilled use, plant-heavy screening, and ESG-led cold-chain review.

Cold Storage Subtypes We Render for Architects and Developers

Six cold-store subtypes drive the UK industrial CGI brief. Public refrigerated warehouses, GDP pharmaceutical facilities, blast freezers, ASRS high-bay freezers, multi-temperature cross-dock buildings, and vertical urban cold stores each demand a distinct refrigeration plant, envelope specification, and yard discipline beyond the baseline cold-chain envelope. StratumCGI renders every subtype against the architect's cladding specification, the mechanical engineer's plant layout, and the production checks planning officers, 3PL operators, and pharmaceutical occupiers actually review.

Cold storage CGI glossary

Public Refrigerated Warehouse (PRW)

Multi-tenant cold-store building leased to third-party logistics operators on a pallet-by-pallet or zone-by-zone basis, typically speculative or build-to-suit. UK examples: Lineage, NewCold, Constellation, Magnavale.

Insulated Metal Panel (IMP)

Pre-fabricated sandwich panel with a PIR, PUR, or mineral-wool core, 80 to 200 mm thick for cold storage. Forms the cold envelope wall and roof with a thermal-break joint. Supplied by Kingspan, Isocab, or Metl-Span.

Automated Storage and Retrieval System (ASRS)

High-bay narrow-aisle automation using stacker cranes inside a rack-clad or self-supporting cold envelope at 30 to 46 metres clear internal height. Vendors: Swisslog, Witron, Dematic, SSI Schaefer, Mecalux.

Blast Freezing

Rapid pull-down driving product core temperature to minus 30 to minus 40 degrees using ammonia or CO2 cascade plant. Plate, tunnel, or spiral configurations, separate from static frozen storage.

Good Distribution Practice (GDP)

UK and EU regulatory framework governing pharmaceutical cold-chain distribution, enforced in the UK by the MHRA. Requires validated temperature mapping and IQ, OQ, and PQ qualification across ambient, chilled, frozen, and ultra-low zones.

Public Refrigerated Warehouse (PRW) CGI

Public refrigerated warehouse CGI shows a speculative or build-to-suit cold store for third-party logistics, with an IMP envelope sized for any incoming occupier.

The render proves the IMP cladding, ammonia or CO2 rooftop plant, and a yard segregating chilled (0 to 4 degrees) from frozen (minus 18 to minus 25 degrees) movements. UK PRW operators (Lineage Logistics, NewCold, Constellation Cold Logistics, Magnavale) work the multi-tenant lease-by-pallet model defined by IARW.

StratumCGI builds one PRW model that upgrades to build-to-suit on occupier signing, so speculative and pre-let renders share one geometry. See the public refrigerated warehouse case study (SCGI-007).

Pharmaceutical and GDP Cold Storage CGI

Pharmaceutical cold storage CGI presents a UK GDP compliant, MHRA-regulated building. Validated zones: ambient (15 to 25 degrees), chilled (2 to 8 degrees), frozen (minus 20 degrees), and ULT (minus 80 degrees).

The render reads cleaner than food cold chain, with a controlled gatehouse, tighter landscape, and a parapet plant screen sized to validated zones, not bulk capacity. The audience: pharmaceutical distributors (UPS Healthcare, Movianto, DHL Supply Chain), planning officers, and architects briefing into life-sciences logistics.

StratumCGI isolates each GDP-compliant zone as a discrete model element, so investor presentations, MHRA submissions, and planning reports can call out IQ, OQ, and PQ validation. The pharmaceutical cold storage example (SCGI-007) uses the same temperature-controlled facility proof set.

Blast Freezer Facility CGI

Blast freezer CGI shows how rapid pull-down shapes plant footprint and envelope geometry. The render proves the freeze tunnel, the ammonia (NH3) plant room with acoustic enclosure and screened parapet, and minus 30 to minus 40 degree storage segregated from chilled and ambient zones.

CO2 cascade refrigeration is rendered where F-gas regulation drives a low-GWP brief, with Star Refrigeration, J and E Hall, or GEA designing the plant. The audience: food producers (seafood, poultry, ready-meal, ice-cream), planning officers reviewing plant load, and operators testing freeze-tunnel throughput against IIAR ammonia-safety guidance.

StratumCGI models the plant from mechanical specification (refrigerant type, plate or spiral freezer, screen geometry), so the image proves the technical scheme. The blast-freeze facility CGI reference (SCGI-007) sits within the same cold-storage case study set.

High-Bay Automated (ASRS) Cold Store CGI

High-bay automated cold storage CGI proves an envelope different from a portal-frame shed: narrower footprint, 30 to 46 metre clear internal height, rack-clad or self-supporting single-volume freezer.

The render shows the ASRS envelope, narrow-aisle stacker-crane logic (Swisslog, Witron, Dematic, SSI Schaefer, Mecalux), the rooftop plant deck for the automated refrigeration load, and a yard supporting automated put-away. The audience: developers underwriting automated cold chain, planning officers assessing massing at greater height, and operators specifying ASRS racking against UK references like NewCold Wakefield.

StratumCGI models the rack-clad envelope to the engineer's structural specification, so the height reads correctly and IMP cladding resolves at full building scale, not portal-frame proportions. The high-bay automated cold store project (SCGI-007) remains part of the same temperature-controlled logistics proof set.

Multi-Temperature and Cross-Dock Cold Store CGI

Multi-temperature cold storage CGI holds three zones inside one envelope: chilled (1 to 4 degrees), ambient (15 to 25 degrees), and frozen (minus 18 to minus 25 degrees). Cross-dock or block-stack operations run across a segregated dock face.

The render proves dock seals and levellers at correct opening sizes, the chilled-versus-ambient dock split, IMP partitions between zones, and a yard supporting cross-dock moves without zone contamination at NDC scale. The audience: grocery developers (Tesco, Asda, Morrisons, Sainsbury's, Bidfood, Brakes), 3PL operators handling mixed stock, and planning officers reviewing a 100-plus door yard discipline.

Vertical urban cold store

Ground-level cold-chain yard for vertical urban storage

Multi-storey refrigerated envelope, constrained urban yard, light-industrial neighbours.

stratumcgi.co.uk

Vertical and Urban Cold Storage CGI

Vertical and urban cold storage CGI answers a brief the regional shed cannot: a constrained site, light-industrial neighbours, and cold-chain capacity stacked above a compact ground-level dock yard for in-city distribution.

The render shows the multi-storey or urban-edge form, IMP on a smaller footprint, and last-mile logic for urban grocery, dark-store, and pharmacy delivery. The audience: urban-edge developers, last-mile operators placing in-city cold capacity, and planning officers reviewing a cold building in a mixed urban context.

Cold Storage CGI Questions We Hear Most

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Logistics Depot CGI for Last-Mile, Urban, and Warehouse Depot Facilities

Last-mile and urban logistics depot CGI places the building inside its street context so neighbour impact, van circulation, and frontage quality can be read in one view. The sites are smaller, the surrounding context is urban or peri-urban, and the primary vehicle is a delivery van rather than an articulated lorry. Drone-enabled last-mile schemes with rooftop pads and BVLOS corridors sit in a separate fulfilment-hub guide rather than the core depot CGI proof path.

StratumCGI produces last-mile depot imagery from street-level viewpoints that accurately represent the building in its urban context:

• → Context mapping: Surrounding streetscapes, adjacent buildings, and pedestrian routes are modelled from OS mapping and real site photography.
• → Loading proof: Areas are shown with vans in position to demonstrate the yard operates cleanly without blocking the public highway.
• → Emerging typologies: Multi-storey logistics, underground service yards, and shared residential-use schemes are distinctly resolved.

This contextual focus allows planning officers to scrutinise vehicle noise, delivery hours, lighting spill, and street-facing elevation quality seamlessly.

Recommended last-mile depot CGI viewpoint

A street-level frontage view with the loading area in frame shows urban fit, van access, and pedestrian separation together.

What the image must prove

The render proves van circulation, neighbour-sensitive frontage design, loading discipline, and safe relationship to the public highway.

Primary review audience

Planning officers review neighbour impact first, while occupiers assess delivery efficiency and operational practicality.

Within warehouse and logistics CGI, the last-mile sequence recasts one urban depot for planning review, courier dispatch, and neighbour-sensitive frontage control.

View the Urban Edge Last-Mile Depot case study (SCGI-006) for an example of compact urban logistics CGI.

Warehouse Depot and Regional Logistics Facilities

Warehouse depot CGI renders regional mid-scale facilities at 5,000 to 50,000+ sqm, covering the operational and planning ground that sits between urban last-mile depots and full-scale distribution centres. The imagery models yard depth, dock count, HGV circulation patterns, and landscape context where planners and operators evaluate regional depot briefs.

• → Scale boundary: Last-mile facilities under 5,000 sqm, warehouse depots 5,000 to 50,000+ sqm, distribution centres beyond.
• → Yard and dock modelling: HGV turning circles, dock orientation relative to trunk roads, loading bay frequency at regional scale.
• → Estate integration: Landscape buffers, estate-road hierarchy, visibility from main routes and local amenity areas.

Warehouse depot CGI resolves what standard 2D planning drawings cannot convey. The visuals show how a mid-scale facility sits within its road network, what the driver experience reads at arrival, and how building mass and surface activity are perceived from neighbouring properties. This visual clarity gives operators a clearer read on road hierarchy, arrival sequence, and surrounding amenity context before the depot brief moves into consultation or pre-let review.

For big-box distribution and standard pallet density, see Distribution Centre CGI above. For cross-dock throughput and e-commerce consolidation, see Fulfilment Hub CGI.

Air Cargo and Specialist Freight Facility CGI

Air cargo and specialist freight facility CGI separates airside, landside, and security-controlled movement so the scheme reads as an operational freight asset rather than a generic shed by a runway. Air cargo terminals coordinate under strict requirements that shape the building's form.

StratumCGI models air cargo schemes from the airport operator's layout plan, ensuring exact regulatory alignment:

• → Airside geometry: The apron, taxiway edge, and aircraft stand positions dictate the cargo building's exact location.
• → Landside boundaries: The HGV yard is modelled with the correct physical separation from the secure airside boundary.
• → Security controls: Security fencing, access control points, staff segregation routes, and service-yard queueing are composed to explain process.

This strict segregation allows the planning authority and airport operator to review the scheme in its operational flow rather than as an isolated building.

Recommended air cargo CGI viewpoint

An oblique apron-side or boundary view should show the airside line, landside yard, and control points in one composition.

What the image must prove

The render proves airside-landside separation, security control logic, stand relationship, and freight handling credibility.

Primary review audience

Airport operators and planning teams review operational separation first, while freight users assess flow, access, and site realism.

Within warehouse and logistics CGI, the air-cargo sequence maps one freight model across landside flow, airside separation, and secure night operation.

View the Regional Air Cargo Terminal case study (SCGI-008) for an example of specialist freight facility CGI.

Sustainable Warehouse CGI and ESG Features

Daylight Scheme SCGI-SW-01

PV full rooftop array EV 25+ charge bays BNG 20%+ uplift

Sustainable warehouse CGI renders the environmental performance attributes that UK logistics developers now specify as a baseline. SEGRO Park Tottenham scores 92.7 to 94.9% BREEAM Outstanding, the highest industrial BREEAM score recorded in the UK market.

Prologis Park Hemel Hempstead DC3a sustained 88.8% BREEAM Outstanding, with DC12 at the same park certified EPC A+. The imagery must resolve five distinct systems at a level an institutional investor or planning officer can read without a specification document.

• → PV array positioning and capacity: Rooftop array layout, kWp rating (typical 150 to 500 kWp for single-unit schemes, 1 to 2 MWp across multi-unit portfolios), and inverter plant location rendered as part of the plant-yard composition.
• → EV charge hub layout: Dedicated charge points (standard 10 to 40 spaces, premium schemes 50 or more), trunking routes, and transformer positions visible in the yard plan.
• → Biodiversity net gain: BNG buffer rendered as qualified habitat (wildflower meadow, native tree planting, hedgerow restoration), visually distinct from amenity landscaping.
• → Thermal envelope and solar control: Roof overhangs, high-performance glazing, and facade shading resolved at envelope level.
• → Low-carbon structural frame: SCM concrete, steel reuse, or mass timber shown in cladding and structural expression where specified.

A BREEAM Outstanding render set carries the PV array, the EV charging hub, and the biodiversity buffer as readable geometry, not as background texture. Each element is positioned and sized to the approved specification, so the render scores against the BREEAM scorecard at the same resolution it reads against the planning officer's site plan.

StratumCGI produces the BREEAM-submission render set, the net zero carbon pathway render, and the planning neighbour-amenity view from the same verified model. The aerial view carries the PV array and EV charging hub for the energy assessor. The ground-level biodiversity view carries the habitat schedule for the ecologist. The night aerial carries the lighting layout for the BREEAM assessor's operational-energy credit.

The institutional pack operates against the same BREEAM-and-net-zero evidence standard. Prologis, SEGRO, Tritax, and GLP run net zero portfolio commitments that move carbon and biodiversity evidence forward to planning stage, so the documents that satisfy the planning officer also feed the investor sustainability report and the BREEAM submission.

BREEAM target

Outstanding 85%+, Excellent 70-84%, compliance 55-69%

PV array capacity

150 to 500 kWp single-unit, 1 to 2 MWp multi-unit portfolios

EV charge point density

10 to 40 spaces standard, 50+ on premium schemes

Biodiversity net gain uplift

10% statutory minimum, 20 to 30% on leading schemes

Operational carbon intensity

8 to 15 kgCO₂e/m²/yr new-build typical

Warehouse Biodiversity and Public Realm Rendering

The biodiversity buffer render set shows the qualified habitat the ecologist has scheduled: wildflower meadow, wetland with reed beds, native hedgerow, and green living roof, all positioned on the approved site plan. This is the visual record of the 10% statutory net gain required under the Environment Act 2021, produced at a resolution the planning officer and the Natural England auditor can read against the Biodiversity Metric 4.0 calculation.

StratumCGI receives the agreed Biodiversity Metric 4.0 output from the appointed ecologist: a habitat schedule listing each unit type, distinctiveness grade, and condition score. The render translates that schedule into a verified view set, showing each habitat at its correct extent, species composition, and management stage.

The 30-year statutory management plan renders as a habitat trajectory, modelling typical projections of 10 to 40 units for large-box schemes. Each frame is the same approved geometry under different management-stage conditions, so the planning officer reads habitat maturity without re-rendering the building.

Indicative large-box warehouse scheme, modified agricultural baseline

Pre-development Baseline habitat

• Arable croplandLow distinctiveness, Moderate condition3.2
• Modified grassland marginLow distinctiveness, Poor condition0.8

Baseline total4.0

Post-development Delivered habitat

• Wildflower meadowMedium distinctiveness, Good condition8.4
• Wetland with reed bedHigh distinctiveness, Good condition6.2
• Native hedgerow, restoredMedium distinctiveness, Good condition4.1
• Green living roofMedium distinctiveness, Moderate condition2.1

Post-development total20.8

+16.8Habitat units delivered

+420%Net gain over baseline

10%Statutory minimum cleared

Figures are indicative for a typical large-box warehouse scheme on modified agricultural land. Each commission is calculated by the appointed ecologist against its own baseline survey using Natural England Biodiversity Metric 4.0. StratumCGI visualises the delivered habitat set once the metric calculation is agreed.

Biodiversity warehouse CGI derives geometry from the landscape architect's reference set rather than originating the landscape design. The reference documentation supplied to StratumCGI covers hard landscape drawings, soft landscape plan, planting schedule, and the 30-year management plan.

StratumCGI translates the landscape architect's reference set into photoreal rendering under Landscape Institute Technical Guidance Note 06/19 (Verified Views methodology), verifying visual accuracy against measured drawings and scheduled plant performance. The render set supplies planning evidence at the same standard the landscape architect briefs against.

Warehouse Biodiversity CGI from Landscape Architect Mood Board

Biodiversity warehouse CGI translates the landscape architect's mood board into a verified photoreal render. The mood board supplied to StratumCGI comprises watercolour concept sketches, photographic precedent references, planting palette tiles naming native species, and hand-drawn spatial diagrams.

Design authorship credit belongs to the commissioning landscape architect. StratumCGI visualises the intent set without substituting authorship.

Biodiversity warehouse CGI renders the habitat features and public realm infrastructure that satisfy Biodiversity Metric 4.0 credit scores. StratumCGI resolves each credited feature to photoreal specification:

• → Wildflower meadow with named native species: cowslip, yellow rattle, bird's-foot trefoil.
• → Wetland habitat with reed beds and marginal aquatic planting.
• → Boardwalk and interpretation path with accessible gradient and native timber specification.
• → Retained mature trees and hedgerow with canopy continuity marked.
• → Green living roof on the office frontage.
• → Staff amenity features: bench seating and interpretive signage.

Biodiversity Frontage SCGI-SW-03

BNG wetland + meadow Office green living roof Staff amenity path

• → Habitat units delivered: 10 to 40 units typical across large-box warehouse schemes, representing net 10%+ gain over pre-development baseline.
• → Native planting ratio: Native species composition targets 70% or higher to maximise Biodiversity Metric credit allocation and support local pollinator ecology.
• → Management plan duration: 30 years statutory minimum, tracked from practical completion through annual monitoring reports and five-yearly condition reassessment.
• → Habitat types rendered: Wildflower meadow, wetland, retained hedgerow, native tree cluster, green living roof, and permeable public realm.
• → Public realm features: Boardwalk, interpretation signage, bench seating, and staff amenity path with native understorey.

Landscape Growth Visualisation: 1, 5, 10, and 20-Year Canopy Renders

The four frames below show the same warehouse from the same camera at year one, five, ten, and twenty after planting. Only the canopy changes. Year one shows planting as built: saplings at two to three metres, timber stakes, exposed mulch, the cladding fully visible behind. Year five shows partial closure, with the upper third of the building still readable. Year ten leaves only the roofline and parapet showing above the screening. Year twenty hides the building behind a mature canopy with only fragments of cladding visible through the gaps.

Each frame uses the same oak, birch, alder, and hawthorn species mix. Growth rate and crown spread are modelled per species, not averaged. Lighting, weather, and season are held constant across the four frames so the only variable a planner sees is canopy maturity. Officers read the screening trajectory in seconds, which removes the standard objection that a day-one render makes young planting look denser than it really is and overstates the visual mitigation the scheme actually delivers in year one.

Net Zero Carbon Warehouse CGI

The net zero carbon render set resolves the four systems a planning officer and energy assessor need to read: the PV array at measured capacity, the EV charging hub at scheduled density, the embodied-carbon material specification, and the operational lighting load at night.

The UK industrial pack now pulls the carbon render set forward to planning stage rather than to handover. Prologis, SEGRO, and Tritax run portfolio-wide net zero commitments that put the four-system carbon evidence in the same submission window as the planning pack.

Night Operation SCGI-SW-04

LED perimeter + yard EV lit canopies 24h operational read

The EV charging canopies, yard floodlights, and reception lighting in the render above read as auditable operational features, not as decorative night-lighting effects. The BREEAM Net Zero Addendum and the UKGBC Net Zero Carbon Buildings Framework both check operational lighting load at planning stage now, not at handover.

UK industrial portfolios run on Scope 1, 2, and 3 net zero commitments with operational lighting inside the audit boundary, which pulls the night-aerial frame forward to planning stage. The energy assessor and the investor sustainability committee read the same image.

Beyond the night-operation evidence shown above, a complete carbon evidence pack resolves four specific systems:

Three UK certification regimes set the evidence threshold for a net zero warehouse render set, and each regime reads a specific element of the carbon evidence pack. The UKGBC Net Zero Carbon Buildings Framework checks operational intensity at 8 to 12 kgCO₂e/m²/yr post-occupancy, and the PV offset stat plus the night-aerial view carry that evidence. The RIBA 2030 Climate Challenge checks embodied carbon transparency, and the material-specification view (SCM concrete at 40 to 60% replacement, mass timber where the brief permits) supplies it. The BREEAM Net Zero Addendum checks carbon intensity at practical completion and operational phase, and the full render set is the document the BREEAM assessor reads. Three frameworks, one coordinated view set.

Planning Accuracy and Warehouse CGI Deliverables

StratumCGI develops each warehouse and logistics CGI package from architect's drawings, structural GA, site plans, and operational layouts. The approved geometry then carries planning scrutiny and commercial promotion without splitting into two separate model builds.

StratumCGI ships each package with planning stills, marketing hero images, aerial estate views, street-level perspectives, and cropped assets sized for brochures and investor decks. Cladding specification, service-yard geometry, and site context stay consistent across every file because every output renders from the same source geometry.

The discovery brief locks camera positions, priority viewpoints, operational features, and approval dates before production starts. Locking those dates upfront keeps the visual package aligned with planning submission programmes, pre-let launch windows, and internal investment reviews on UK logistics developments where the leasing window is short. Clients then route the same approved geometry through StratumCGI's five-stage production process without rebuilding the proposal for each audience.

Technical Verification for Planning-Grade Warehouse CGI

Planning-grade warehouse CGI is built from specific consultant inputs, not visual approximation: architect's drawings, structural GA, site levels, and agreed viewpoints. Planners can then compare the resulting render directly against the planning pack, the transport assessment, and the landscape strategy without having to translate between different visual conventions.

Inputs from the consultant team

• Consultant drawings and structural GA
• Site levels and yard datum
• Agreed viewpoints and crops
• OS mapping and georeference
• Supplied BIM geometry
• Verified site photography

Outputs the planning officer reads

• AVR Type 3 verified views
• Planning photomontage
• LVIA visual receptor viewpoints
• Sun-path and shadow studies
• Service-yard geometry checks
• Coordinated planning evidence pack

The consultant drawings, BIM geometry, OS mapping, and verified site photography listed above are folded into the base model before final rendering starts. The warehouse envelope, yard datum, dock height, and screening strategy then stay aligned with the material the planning authority and the consultant team are already working from, so the render reads as agreed evidence rather than as a separate creative artefact.

Warehouse CGI now needs to show more than cladding and dock count. Developers, investors, and planning teams often need the imagery to make BREEAM ambition, EPC A intent, PV roof arrays, EV charging, SUDS features, biodiversity net gain areas, and landscape buffers legible in the same frame.

When those features are handled properly, the render explains how sustainability measures sit within the operational logic of the development rather than reading as decorative extras. The warehouse CGI can then carry planning review, investor review, and pre-let messaging in one coordinated image set without splitting the scheme into disconnected visual stories.

Building Technical Details: PV, Skylights, Cladding, and Signage CGI

The grid below isolates the four building components that matter most under planning and pre-let scrutiny. The first frame shows the roof PV array with monocrystalline panel pitch, ten-degree tilt, and walkway gaps every fourth row. The second resolves the polycarbonate dome skylights along their roof grid and the daylight they push through the cladding line. The third reads the cladding rib profile in close-up with joint detail and fastener line. The fourth frames the entrance architrave with the corporate signage panel sitting at agreed dimensions over the glazed entrance doors. Kingspan QuadCore, Tata Steel Trisobuild, and Eurobond Rockspan profiles are each held as separate models so the spec on the drawing matches the spec on the render.

Every element in those four frames is geometry. The PV panels, the skylight domes, the cladding profile, and the entrance signage are all 3D-modelled objects placed from the supplied drawings, not Photoshop overlays composited onto a base render. What a planner or a prospective occupier reads on screen is what the contractor builds on site.

Site Infrastructure CGI: Vehicle Access, Cycle Storage, EV, and Amenity Spaces

The annotated aerial above carries this section. Thin white callouts mark every element a planning committee will look for: the one-way HGV circulation loop with its swept-path overlay, the dock face with trailers backed in at right angles, the perimeter fence and gatehouse, the covered cycle shelter on the staff side, the picnic area, the EV bays separated from HGV traffic, the waste enclosure, and the emergency vehicle route running parallel to the main loop. A non-technical reader can navigate the whole scheme in seconds.

The two ground-level frames below pull the aerial down to human scale. The cycle and amenity image resolves the covered racks, the timber picnic tables on paving, the ornamental grass planting, and the staff entrance behind. The EV charging image shows the twin-head units, the painted accessible bay with wheelchair symbol, the bollard protection, and the bay numbering. Both follow BS 8300 guidance for accessible parking layout.

Every bollard, charger, picnic bench, and tree pit visible across these three images is a 3D-modelled object placed at its surveyed coordinate. None of it is composited from a stock photo library. Hardscape and softscape both follow the consent drawings, which means the visual that wins planning is the visual that gets built on site.

Standard Warehouse CGI Packs

Warehouse Interior Capacity and Racking CGI

Warehouse interior capacity CGI shows what an approved logistics shell can hold once the brief moves beyond frontage and yard layout. The approved model can test clear internal height, racking density, VNA aisle logic, mezzanine fit-out, ASRS zones, and van-sortation fit without changing the external planning facts.

Those images move from developer to leasing team, from leasing team to occupier, and from asset team to investor deck because they answer different versions of the same question: how much operational capacity does this shell really offer, and how flexibly can that capacity be reconfigured for another occupier profile.

A warehouse interior view starts with measurable fit-out constraints: pallet count, clear haunch height, aisle module, beam level, and sprinkler clearance. Each interior view places dock-door relationship and FLT or turret-truck movement in correct spatial context. Racking, VNA, automation, and mezzanine fit-out options then read as different operating systems, not furniture swaps.

From

Developer or landlord team

To

Leasing agents, occupiers, and investors

How

By reusing one approved shell model and swapping interior fit-out logic

Why

To prove capacity, flexibility, and occupier fit before a letting decision is made

• → Coordinated evidence: These images can show clear internal height, rack density, aisle logic, mezzanine structure, automation zones, and dispatch fit in one coordinated set.
• → Occupier communication: Leasing teams use them to explain capacity to occupiers who care deeply about racking and throughput metrics, rather than external frontage alone.
• → Investor flexibility: Investor teams use them to compare one shell against multiple operational narratives without commissioning a completely fresh 3D model each time.

Interior Functionality and Scale Reference CGI

The hero image below populates the same 12-metre-clear shell with deliberate scale references so the volume reads as workable cubic space rather than as an abstract spec-sheet figure.

Scale Reference SCGI-INT-01

StratumCGI places deliberate scale references inside every interior render. An 18-tonne rigid truck on the dock floor sets vehicle envelope. A full 1.4-metre pallet stack sets racking depth. A counterbalance forklift at typical lift height sets working clearance. A person silhouette at 1.75 metres sets human reference. A mezzanine column or a structural haunch sets the column grid.

Alternative occupier layouts can be tested inside the approved shell, including hybrid warehouse/manufacturing use, specialist production zones, clean-room insertion, and higher-intensity fulfilment fit-out. The comparison stays useful because the envelope, access logic, servicing route, and yard arrangement remain fixed while the interior operating read changes.

Both images use the approved shell model. A leasing agent can walk a prospect from the empty scale-reference view into a racked-and-manufacturing variant without commissioning a fresh 3D build, which makes occupier conversations faster and cheaper than the usual one-render-per-narrative workflow.

One Logistics Shell, Multiple Market Positions

StratumCGI renders the same verified logistics shell for three occupier positions: standard pallet distribution, automation-led storage, and higher-intensity fulfilment fit-out. Each version changes the operational read while keeping the approved envelope and servicing logic fixed.

The envelope, access logic, and external planning facts stay fixed. Interior fit-out, occupancy cues, lighting treatment, and marketing emphasis shift per audience. Developers and agents test alternate uses on one approved shell without commissioning a new model each time.

Director Commentary: How Warehouse CGI Is Judged

The page explains warehouse and logistics CGI at category level. The director commentary below adds the review logic behind the visuals, including planning scrutiny, occupier evaluation, and the need for one model to serve more than one audience.

Warehouse CGI Questions Buyers Ask First

These questions cover the commercial and definitional gaps most first-time warehouse and logistics clients need answered before briefing the visuals.

What is warehouse and logistics CGI?

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Warehouse and logistics CGI is photorealistic architectural visualisation for distribution centres, fulfilment hubs, cold stores, depots, and freight facilities. It is used to show how the scheme looks and how it operates, including yard depth, dock positions, circulation, screening, and site access, before the building is constructed.

What does CGI stand for in construction?

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In construction, CGI stands for computer-generated imagery. On a warehouse project, that usually means a 3D model and rendered stills that turn site plans, elevations, and technical references into images for planning, leasing, investor review, or brochure use.

How much does warehouse CGI cost in the UK?

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Most warehouse exterior briefs at StratumCGI start from £1,800 for two agreed views. Larger warehouse and logistics packages are quoted by view count, supplied information, context complexity, verification requirements, and whether the same model needs to serve planning, leasing, and investor outputs.

How does warehouse CGI differ from residential CGI?

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Warehouse CGI is judged more heavily on operational credibility than domestic mood or styling. The visuals need to communicate HGV circulation, dock rhythm, service-yard depth, office frontage, plant screening, and occupier flexibility, often across planning and commercial audiences at the same time.

What warehouse CGI outputs does StratumCGI deliver?

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Typical outputs include planning stills, verified or planning-grade viewpoints, marketing hero images, aerial estate views, cropped brochure assets, and investor-deck visuals. The deliverable mix depends on whether the same warehouse model needs to answer planning, leasing, or internal funding questions.

What yard, dock, and HGV detail does logistics warehouse CGI include?

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Logistics warehouse CGI includes accurate service-yard depth (typically 50 metres for 16.5 metre articulated vehicles), dock-leveller positions matched to the floor-to-ground height differential, HGV turning circles rendered from the transport assessment, dock-face rhythm matching the structural grid, and landscape screening from OS mapping. The detail scales up for cross-dock schemes where dual-yard activity has to read on both elevations.

Warehouse and Logistics Portfolio

StratumCGI's warehouse and logistics portfolio includes distribution centres, fulfilment hubs, cold storage facilities, last-mile depots, and air cargo terminals. Each case study documents the CGI scope, outputs delivered, and the specific communication challenges the visualisation addressed.

The grid below lists the logistics warehouse case studies StratumCGI has delivered across distribution, fulfilment, cold storage, last-mile, and air cargo briefs. For the broader proof set beyond this logistics cluster, the same portfolio index covers data centre and specialist industrial commissions.