ROMAN KABANOV

Tasked with delivering a benchmark international K-12 school in Tashkent, the site layout addresses extreme solar exposure through solar-oriented classroom blocks and sheltered central courtyards.

The campus segregates early learning, primary, and secondary blocks into clear spatial clusters connected by an intuitive central circulation spine and social gathering hubs.

Built in 2021, operating as an international K-12 campus.

The 9,900 m² school building has a U-shaped massing that encloses an inner courtyard, orienting classrooms toward natural daylight.

The facade combines light-tone composite panels with yellow window reveals and aluminium ribbon glazing.

Developed within the KiPro architectural project team: Revit BIM modelling, architectural floor plans, and model QA coordination.

The athletic hall has a 9.60 m clear height structured by cast-in-place concrete beams with integrated linear LED profiles.

North-facing clerestory ribbon glazing provides indirect illumination across the competition court.

The lower perimeter is protected by light grey-blue impact-resistant acoustic wall padding for safety and sound absorption.

The three-storey building has a curvilinear plan that encloses protected outdoor play areas while opening instructional wings toward daylight.

The facade combines a prominent timber-slatted entrance portal with dark panel rainscreen cladding across the curved classroom wings.

Large window openings provide abundant daylight to group rooms and administrative spaces, coordinated through detailed construction drawings (CD).

Designed for ZROBIM architects, the residence is conceived as an elongated single-story ensemble embedded within a preserved pine grove. The architectural massing wraps around internal landscaped courtyards and open light patios, preserving mature forest trees directly within the architectural footprint. Deep cantilevered eaves provide passive solar control and sheltered perimeter walkways.

The exterior combines heavy split-face architectural stone pylons anchoring the building to the terrain with dark graphite vertical metal siding, timber decking, and panoramic triple glazing. The 797 m² layout establishes clear spatial stratification: an expansive living core with fireplace, an isolated master bedroom wing with gravel garden, a dedicated 115 m² wellness spa with swimming pool and gym, plus an integrated 3-car garage.

The outer envelope is unified in dark anthracite standing-seam sheet metal, wrapping continuously from the low-pitch roof planes down exterior walls to withstand Baltic winter snowfall.

Underneath the cantilevered roof overhang, a deeply recessed terrace is lined with vertical natural timber slats, creating a sheltered outdoor living zone facing the water.

The low-slung volume sits gently on the lakefront edge, preserving existing trees and shoreline ecology without excessive earthworks.

Based on a standardized 8.0 x 4.0 meter transportable structural footprint (32 m² unit), the system accommodates multiple cladding options including vertical timber board siding and dark profiled sheet metal.

Mounted on ground screw piles without wet concrete works, preserving meadow soil and natural site terrain.

Modular off-grid options include roof solar photovoltaic arrays, rainwater harvesting filtration, and high-efficiency heat pump climate controls.

Developed during master studies at VILNIUS TECH in academic exchange with Bauhaus-Universität Weimar, the project investigates an aerodynamic tower with humidity-responsive kinetic facade louvers.

The aerodynamic twisting form was scripted in Grasshopper to mitigate wind vortex shedding and lateral wind loads, with diagrid nodes acting as water collection channels.

The kinetic envelope responds dynamically to solar radiation vectors and relative humidity, directing condensed moisture to a central filtration spine.

The master plan organizes a 15,000+ m² climate engineering campus, integrating an automated manufacturing plant, research laboratories, administrative headquarters, and testing centers.

Site logistics establish strict separation between heavy freight trucking rings, employee circulation, and visitor arrival zones, optimizing vehicular safety and workflow.

Fully coordinated across disciplines in Autodesk Revit, progressing through statutory permitting to detailed construction documentation (CD) and author supervision.

As Project Architect at KiPro, delivered complete architectural packages (Permit / Stage P and Detailed CD) for two landmark mega-scale logistics parks: a 190,000 m² Class-A multi-block distribution hub and a 180,000 m² 7-building industrial logistics park.

Coordinated complex building envelopes: insulated sandwich panels, thermal expansion joints, topping slab floor interfaces, roof parapets, and high-frequency automated loading dock bays.

Conducted interdisciplinary coordination across structural, MEP, and industrial technology models in Revit, securing statutory approvals and passing state expertise.

During the delivery of large-scale industrial and educational facilities, manual audits of linked structural and MEP models cause recurring coordination delays and costly site revisions.

To eliminate these bottlenecks directly inside Autodesk Revit, I developed targeted C# / .NET tools focused on model hygiene and cross-discipline verification.

Karo.WhatsChanged automates differential tracking between multidisciplinary model releases, instantly flagging moved columns, altered framing sizes, and deleted elements. Combined with Karo.WhyHidden for one-click visibility troubleshooting across 30+ parameter overrides, these tools streamline model review and protect documentation quality before statutory filing and site release.