Jey's Portfolio 2026 LAND

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2017-2026 Selected Works Ar. Jey’s POR OLIO AR. JEYAKUMAR V S, M. ARCH, MBA I PORTFOLIO - 2026

“Architecture is the learned game, correct and magnificent, of forms assembled in the light — guided by function, responding to environment.“ - Le Corbusier “Architecture is a code. The forms are meant to be functional, but they are also inspired by nature with a movement and balance.” - Santiago Calatrava

Get To Know Me… Hi…! This is Ar. Jeyakumar V S. I'm an architect and student who focus sits right where BIM, project management, and architectural design overlaps. That's where technology, people, and process mix together and turn rough concepts into real, successful projects. For me, BIM isn't just a modeling tool; it's a way to boost coordination, see design decisions clearly, organize information, and keep the whole team and project workflow truly connected. I'm also passionate on project management, because that helps me see how every design choice affects time, budget, quality, resources, and the way things get built. I find myself especially interested in biophilic design, the clean lines of modern simplicity, and architecture that actually performs well—not just looks good. I passionately believe that The grate architecture serves as a bridge between nature and mankind, while taking into account of both the present and the future while analyzing the past. The architecture isn't just about designing a building—it's about making ideas come to life and actually works in reality.

DIGITAL SKILLS Bim & Design Auto CAD Revit Sketchup Rhino Grasshopper 3Ds Max Visualization Enscape Lumion Adobe PS Adobe Illustrator VR & AR (Meta- Quest & Unity) 3D Printing and scaled models MS PPT Performance & Analysis Design Builder E- Quest Autodesk Insight Autodesk Forma Coordination Project-Libre Navisworks Primavera MS Excel MS Word WORK EXPERIENCE PROFESSIONAL EXPERIENCE o Freelance architect (MEEVI ARCHITECTS), Chennai from 2021to present o Freelance artist (YEURI DESIGN STUDIO), Chennai from 2021to present o Jr. Architect in VINU VERGIS ARCHITECT, ECR, 2024 (5 months) INTERNSHIPS o Intern in J PLUS A DESIGN STUDIO, Ashok pillar, Chennai, 2021(2 months) o Intern in SAJITH AND VIVEK ARCHITECTS, Chennai, 2021 (1.5 months) EDUCATION o M. Arch in Digital Technology in Building (BIM Integrated Course) in VIT University, Vellore – 2025 to Present (Current CGPA – 9.12) o MBA in Project Management (Online) in Manipal University, Jaipur – 2024 to 2026 (Current CGPA – 7.83) o B. Arch in Mohamed Sathak A.J. Academy of Architecture, Chennai – Passed out on 2022 (CGPA – 8.25) CERTIFICATIONS & TRAINING o Professional in architectural design, CADD center, January 2017 o Vastu shastra, Delopus pvt. Ltd, June 2023 o Estimation and BOQ, Delopus pvt. Ltd, July 2023 o The site analysis and climate study organized by KAARWAN, October 2022 o The site analysis and climate study organized by KAARWAN, August 2023 o AI in Architecture, VIT 2025 o Autodesk BIM MEP Workshop, VIT, Oct 2025 o ECSBC & ENS – 2024 and Energy Simulation, TN Gov, 2025 o Autodesk Forma, Autodesk, Oct 2025 o Research Methodology, Queen Marry University of London, Coursera, Dec 2025 o Foundation of Project Management, Google, Coursera, Jan 2026 o Fundamentals of Project Management, John Hopkins University, Coursera, June 13, 2026 PUBLICATIONS o Nature Inspired Living, Integrating Biophilia Design Strategies for TN Housing Program, Published in Routledge – Taylor & Francis Group, October, 2026.

Content…

The Bridge House BOAZ- Public School The Apateu Paradise College of Architecture Parametric Designs Freelance Practice Office Practice Master’s Academic Bachelor’s Academic Master’s Academic 01 02 03 04 05

The Bridge house has been designed with the desire to bring a perspective of connecting a human with nature through visual and physical experience. Few direct elements has been integrated, while window views, natural elements and nature-inspired textures and patterns. Incorporated biophilic passive strategies with a diversity of open spaces and greeneries, enough to create a peaceful and calm vibe in the design. Project : Freelance Total plot area : 2415 Square feet. Total Build-up : 1950 Square feet Location : Bommanabande, Karnataka. The Bridge House…

Ground Floor… The site is located in Karnatakka's Nest Residence row house community. The site's width is 30'-0", thus carefully planned areas were created. Plinth level has been raised to 2’-0” height from the road level. Setback and planter box has been equally separated from 4’-6”. As per the client's desire, the Foyer was divided by a 1" level down with Oak flooring. Oak wood has been utilized in the ceiling finish of specific outdoor locations such as balconies and extensions that cannot be impacted by rain. Recessed shade devices have been employed outside, and WPC has been used in finishes where the rain main is immediately below. The dining area features an appealing view of the backyard garden and landscape making it ideal for relaxation. The separate washbasin was designed outside of the common toilet. The design focuses on user privacy and serenity. WPC Deck Marble Ceramic Outdoor Tiles Oak Wood Flooring Vitrified Rough Tiles Granite With LED Light Outdoor Sandstone Flooring View Direction Entry Entry Backyard FIRST FLOOR PLAN

Views Of Ground Floor Living Room Kitchen Living Room Bedroom

First Floor… As per the client's desire, the vertical zoning has been broken down into private and semi-public spaces. The ground floor is entirely used as semi-public space, while the top floor is reserved for private usage by family members alone. A Mezzanine level corridor has been designed on the first floor.. It's typically designed with the aim of utilizing vertical space within a building efficiently, adding additional usable area without expanding the building's footprint. The A double height view provides an enormous and lovely view of the outside plantation from the first-floor hallway. The modern chandelier in double height with profile lighting fall ceiling illuminates all spaces, including the first- floor corridor and bottom level eating area. The activity room and children's bedroom provide a wonderful viewpoint. French windows on the floors have a tendency to provide a balance of usefulness and beauty and frequently utilized to access balconies or gardens. Marble flooring has been designed for the first level as well. The toilet includes rough ceramic tiles for greater stability. View Direction FIRST FLOOR PLAN Master Bedroom Activity Room Kids Bedroom

The garden area, which has a foyer and paths with native plants growing on the side, serves as the interesting entry. The path that leads toward the backyard is illuminated by the LED light. This idea seeks to enhance well-being by fostering a connection between people and environment. This has been accomplished by incorporating natural elements into the architecture facilities. The stairway has a 6-inch riser height for each step. rather than a typical railing. An LED-lit vertical louvered system has been devised. For the staircase, concrete finishes have been generated. The outdoor stairs are built with stone finishes, however instead used the standard thread width in outside, the entry and sunken fire pit have thread widths of 1'-6" and 1'-0". For convenience, a 5'-0" wide hallway has been installed for the mezzanine. The patio now has cooling tiles placed for improved heat resistance. The glass railing has been used in balcony and mezzanine corridor As desired by the client, a swimming pool with dimensions of 15'-0" x 10'-0" and a depth of 5' has been designed. Less maintenance is needed because of the WPC for the deck. The structure's overall height, including the above tank, is 38'-0". The water tank capacity has been estimated to correspond with NBC laws and regulations and client's requirement, yielding an overhead water tank capacity of 6000 L. For easier access, the sump and septic tank have been placed beneath the parking lot. View Direction Site and Common Spaces… SITE PLAN Staircase Mezzanine Corridor Side Pathway

BIM Development FOOTING PLAN PLINTH BEAM PLAN SECTION-AA’ NORTH ELEVATION’

BIM Development LVL-01, FLOOR PLAN SECTION-AA’ LVL-01, BEAM FLOOR PLAN LVL-02, FLOOR PLAN LVL-02, BEAM FLOOR PLAN

BIM Development SECTION -BB’ WEST ELEVATION EAST ELEVATION SOUTH ELEVATION

Quantity Takeoff with BOQ

Gantt chart

Entry

BOAZ… BOAZ Public School envisions a future in which each student realizes their full potential, confidently takes on challenges, and becomes a force for good in the world. I'm extremely delighted to have been a part of Mr. Ar. Vinu Vergis' art of work, and I'm grateful for having the opportunity. He believes that a project is the outcome of both the designer's and the owner's goals. Boaz was created with the intention of creating a simple unit based on "responsive architecture". The School's orientation, strategic positioning of openings, and separation of private and communal zones were all designed with the goal of providing a more enjoyable and educational experience. Project : Office Total plot area : 1,00,000 Square feet. Total Build-up : 901330 Square feet Location : Santhoshpuram, Chennai.

Floor Plans with Site… Based on walkable considerations and student age limits, the design was implemented using vertical and horizontal zoning. Kindergarten through fifth grade classes have been designated on the ground level according to sections. The colorful 1.2-meter-tall wall in the kindergarten classroom provides a barrier-free learning environment. Classes for higher secondary pupils are located on the upper two floors. The play space for children under the fifth grade has been safely designed with proximity. As a cooling approach, the Central courtyard has been constructed to include stack effects. Students and staff may enjoy a peaceful and pleasant environment thanks to the three courtyards along with large openings, which allow natural light and air to flow in and are adorned with plants and greenery. The area has become more enjoyable and educational by combining biophilic and energy-efficient techniques with vibrant and entertaining elements. Section- BB’

Floor Plans with Details… Ground floor plan First floor plan Front Elevation Rare Elevation

Floor Plans with Details… Courtyard Wall Detail Staircase Detail Front Elevation Rare ElevationSection- AA’

Floor Plan with Details… Some of the upper classes have their own labs and studios on the second floor. The designs have been attempted using a 70:30 mass-to-greenery ratio. Over the parapets, a layer of Kadapa stone has been designed. In accordance with the drawings, the exposed brick finish and colorful plastering are complete. Real textures, such as exposed brick surrounded by plants and greenery, provide a more peaceful and comfortable atmosphere. The central staircase features exposed R.C.C., and the exposed brick wall and R.C.C flights help to link the area to nature. Despite being semi-closed, the staircase wall and the corridor parapet's jalis create a more barrier- free atmosphere. Second Floor Plan Right Elevation Left Elevation First floor’s Academic Corridor First floor’s Academic Staircase First floor’s Academic Corridor

Ground Floor Structural Analysis…

Apateu Paradise… A Synthesis of Density and Dialectics In the arid heart of Ahmedabad, where the subtropical sun dictates the rhythm of the city, Apateu Paradise emerges as a masterclass in performance-driven architecture. This project redefines the "Biophilic Dividend" by transforming the constraints of a hot and dry climate into a generative framework for sustainable group housing. The brief demanded a rigorous equilibrium: accommodating a high-density population of 125 DU/Ha across a 3.32-acre site while strictly adhering to GRIHA sustainability benchmarks. The design response is not merely a collection of blocks but a computational morphogenesis. Through ten distinct massing iterations, the final configuration was distilled to achieve a 38.15% improvement in energy performance compared to a standard baseline. The design output is a rhythmic composition of H-shaped and cluster-massing blocks that function as a living thermal filter. By leveraging self-shading geometries, the project maintains an average annual insolation of 117.333 Wh/m², ensuring that internal environments remain cool despite external extremes. Deep courtyards and projected balconies serve as "green lungs," fostering passive ventilation and a 59% Useful Daylight Illuminance in habitable zones. With a significant renewable offset provided by a rooftop PV harvesting canopy, Apateu Paradise achieves an impressive EPI of 55.58, proving that high-density urbanism can be both ecologically restorative and architecturally profound. Apateu Paradise is more than a residence; it is a sustainable ecosystem where advanced BIM integration meets the localized needs of a subtropical metropolis. Project : Residential project Total plot area : 20070.282 Square Meter Total OSR : 2007.5 Square Meter Total Build-up : 38139.65 Square Meter Location : Krishna Nagar, Saraspur, Ahmedabad, Gujarat 380018

Comfort range Comfort range Annual Temperature Chart Sun Path with Temperature Analysis Analysis… In Ahmedabad’s arid climate, where temperatures peak at 46°C, Apateu Paradise redefines high-density living through climate-responsive innovation. The project addresses a rigorous brief: housing 125 units per hectare while exceeding GRIHA sustainability standards. By evaluating ten massing iterations, the final design achieved a 38.15% energy performance boost over standard benchmarks. The resulting H-shaped clusters utilize self-shading geometries to mitigate an intense annual solar load of 2023.97 kWh/m². The output integrates deep courtyards and projected balconies, facilitating a 59% Useful Daylight Illuminance and natural cooling. Supplemented by an energy-harvesting rooftop canopy, the project maintains a low EPI of 55.58. Apateu Paradise proves that high-density urbanism can thrive by synthesizing advanced BIM workflows with local environmental realities. Insight of Temperature and Solar radiation Analysis Micro-climate Analysis of the Site Total plot area : 20070.282 Sq. m Location : Krishna Nagar, Saraspur, Ahmedabad, Gujarat, India Site Location Annual Descriptive Temperature Statics of Ahmedabad Annual Solar Radiation Chart Global and Diffused Solar Radiation ChartAnnual Temperature Chart Annual Humidity Statics of Ahmedabad Annual Wind-Rose Diagram of Ahmedabad Annual Rainfall Statics of Ahmedabad Ahmedabad’s environmental profile demands a dual-strategy design. Seasonal wind roses show a shift from North-East winter winds to South-West summer breezes, requiring orientations that facilitate effective cross-ventilation. Humidity data highlights mid-year peaks exceeding the 70% comfort band, necessitating passive airflow to mitigate "muggy" conditions. Conversely, winter rainfall is nearly zero, with minimal thunderstorm activity. The architecture must prioritize summer cooling and humidity management over moisture protection to ensure year-round occupant comfort. Insight of Wind, Humidity and Rainfall Analysis

The site strategy for Apateu Paradise optimizes a 3.32-acre plot (13,443.20 sqm) by balancing high-density habitation with environmental stewardship. The master plan organizes eight residential blocks and a central clubhouse into a clear hierarchy: Private Zones house the residential clusters, Semi-Public Zones encompass the central recreation area, and Public Zones manage the periphery. Utility infrastructure, including a 270 sqm STP and a 135 sqm electrical yard, is strategically relegated to the service entry to maintain a pedestrian-safe core. By achieving a 23.73% ground coverage, the design preserves significant open space within the required setbacks, fostering a biophilic microclimate. Site… Service Site Entry/ Exit Main Site Entry/ Exit Block- 1&3 BHK Bock - 2&3BHK OSR Club House Bock – 2&3BHK Block- 2&3 BHK Bock - 2&3 BHK Bock - 1&2 BHK STP Public Zone Private Zone Semi- Public Zone Public Zone OSR Residential Blocks Recreation Area Enrty/Exit & Service Site Zoning 4 Blocks of 2 & 3 Bhk Blocks1 Block of Club House 1 B lock of 1 & 3 Bhk Blocks 1 Bock of 1 Bhk Blocks 1 Block of 1&2 Bhk Blocks

The site services for Apateu Paradise are organized into a high-efficiency network of plumbing, waste management, and electrical infrastructure. Plumbing & Water Management: The system is designed based on a water demand of 150 LPCD. Each block type features dedicated Underground (UG) Sumps with 4-day capacities and Overhead Tanks (OHT) for daily use. For example, the 2&3 BHK blocks utilize a 144,000 L UG Sump and a 36,000 L OHT. The site also integrates UG Rain Water Harvesting pits across the layout to promote sustainability. Waste Treatment: Waste is managed via individual UG Septic Tanks for each block—ranging from 40,000 L to 80,000 L— connected through an IC Chamber Line. All lines lead to a 270 sq.m Main STP located near the site exit for centralized treatment. Electrical Infrastructure: A dedicated 135 sq.m Electrical Yard is positioned near the secondary site entry, ensuring isolated and safe power distribution throughout the residential clusters. Site Services… UG SU MP UG SU MP U G . S U M P U G . S U M P UG SU MP UG .ST UG RWH TANK UG SU MP U G . S U M P U G . S U M P UG .ST UG .ST UG .ST UG SU MP UG .ST UG SPECTIC TANK G RAIN WATER HARVESTING UG SUMP MAIN STP UG SPECTIC TANKA AND LINES MAIN STP IC CHAMBER LINE UG SU MP UG SU MP UG. ST UG SU MP UG. ST UG. ST UG. ST UG SU MP UG. ST PLUMBING TANK CAPACITY 2&3BHK UNIT BLOCK (180,000 L FOR 5 DAYS WATER DEMAND) UG SUMP (4 DAYS) 144,000 L OHT (1 Day) 36,000 L UG SPECTIC TANK 59,400 L 1&2BHK UNIT BLOCK (150,000 L FOR 5 DAYS WATER DEMAND) UG SUMP (4 DAYS) 96,000 L OHT (1 Day) 24,000 L UG SPECTIC TANK 40000 L 1&3 BHK UNIT BLOCK (150,000 L FOR 5 DAYS WATER DEMAND) UG SUMP (4 DAYS) 120,000 L OHT (1 Day) 30,000 L UG SPECTIC TANK 50000 L 1 BHK UNIT BLOCK (90,000 L FOR 5 DAYS WATER DEMAND) UG SUMP (4 DAYS) 72,000 L OHT (1 Day) 18 ,000 L UG SPECTIC TANK 80000 L CONSIDERED 150 LPCD 1 BHK = 3 persons 2 BHK = 5 persons 3 BHK = 7 persons SEPTIC TANK

The proposed residential development occupies a total site area of 20,070.28 sq.m, featuring a master plan composed of seven residential blocks and a central clubhouse. The design utilizes a ground coverage of 23.73% (4,761 sq.m), significantly preserving open space compared to the permissible 40%. Each block rises to a height of Stilt + 10 floors, reaching a maximum height of 37.8 meters. The project provides a total of 250 units, distributed as follows: 1BHK: 50 units 2BHK: 100 units 3BHK: 100 units Parking infrastructure is designed to exceed minimum requirements, offering 216 car parking spaces and 409 two-wheeler spaces. Site circulation is maintained through a dedicated 6m wide internal road system, with standard 6m setbacks on all sides and a 9m separation between buildings to ensure adequate light and ventilation. Vertical transport in each block is managed by two lifts: one passenger and one fire lift. Utility services, including an STP (270 sq.m) and an electrical yard (135 sq.m), are strategically placed along the site periphery. Site Plan With Stilt Parking Layout… SITE DATA Propose Permissible SITE AREA 20070.282 SQ.M 20070.282 SQ.M FAR 1.9 1.8 TOTAL BUILDUP AREA 38139.65 sq.m 36126 sq.m GROUND COVERAGE 23.73% (4,761 sq.m) 40% (8028 sq.m) FRONT SETBACK 6 m 6 m REAR AND SIDE SETBACK 6 m 6 m SETBACKBACK BETWEEN BUILDINGS 9 m 9 m CAR PARKING 216 200 2WHEELER PARKING 409 400 MAX. HEIGHT 37.8 + 2m for OHT 45 SITE DATA Propose Permissible FLOOR TO FLOOR HEIGHT 3.15M - NO OF FLOORS STILT + 10 FLOORS - NUMBER OF BLOCKS CLUB HOUSE + 7 BLOCKS - NO OF LIFT PER BLOCK 1 +1 (PASSENGER + FIRE LIFT ) 1BHK AREA AND NO. OF UNITS 50 UNITS 50 INITS 2BHK AREA AND NO. OF UNITS 100 UNITS 100 UNITS 3BHK AREA AND NO. OF UNITS 100 UNITS + CLUB HOUSE 100 UNITS TOTAL NO. OF UNITS 250 UNITS 250 UNITS

-36.72 % Better Than Griha Cube Best Of Design Process -29.682 % Better Than Griha Cube-27.057 % Better Than Griha Cube -35.9560882 % Better Than Griha Cube Final Design-= - 38.1522 % Better Than Griha Cube Massing Evolution… The Iterative Optimization Process- The massing study involved a rigorous evaluation of ten distinct iterations, ranging from linear blocks to complex clustered geometries. Using the GRIHA Cube as a performance benchmark, each option was tested for its ability to reduce heat gain. Initial configurations showed improvements of -27.057% and -29.682% over the benchmark, proving that shifting away from monolithic volumes significantly enhances thermal performance. Performance-Driven Form Finding- As iterations were refined, the transition to H-shaped and X-shaped clusters proved superior for self- shading. Option 10 emerged as the most efficient configuration, delivering a performance score 38.1522% better than the GRIHA Cube. This reduction in the Energy Performance Index (EPI) resulted from maximizing surface-to-volume ratios and creating deep shaded pockets that naturally cool the building envelope. Synthesis of Metrics and Design- The final massing balances high-density requirements with environmental stewardship. Achieving a 38.15% improvement minimizes reliance on active cooling while providing a diverse spatial program. This ensures the residential blocks are high-performance instruments tuned to specific solar and wind conditions.

Analysis … 01. People 02. Activities 03. Relationships 01. Site 02. Environment 03. Quality 01. Initial Cost 02. Life-style cost 01. Past 02. Future 03. Present Individual Small group Large group Programmatic Concept People Grouping Function Form Economy Time User analysis reveals a multigenerational programmatic framework that balances individual privacy with communal synergy. By categorizing users— families, elderly couples, and young workers—you’ve identified specific "Divisions of Responsibility," allowing architecture to facilitate shared tasks like cooking and childcare while preserving dedicated "Private Suites" for rest and focused work. Insight of User Analysis 𝐴𝑣𝑒𝑟𝑎𝑔𝑒 𝐴𝑛𝑛𝑢𝑎𝑙 𝐼𝑛𝑠𝑜𝑙𝑎𝑡𝑖𝑜𝑛 = 𝐴𝐴𝐹𝐼 𝑇𝐵𝐴 = 4475038 38139.65 𝐴𝑣𝑒𝑟𝑎𝑔𝑒 𝐴𝑛𝑛𝑢𝑎𝑙 𝐼𝑛𝑠𝑜𝑙𝑎𝑡𝑖𝑜𝑛= 117.333 Wh/𝒎𝟐 Solar Analysis of Massing Annual average Facade Insolation GRIHA cube side calculation = 𝑆𝑡𝑢𝑑𝑦 𝑎𝑟𝑒𝑎 6 = 57061 6 GRIHA cube side calculation = √ (57061/6)= 97.52 Desgin case peak season AASI= 6191303 𝑊ℎ/𝑚2 Desgin case peak season AASI GRIHA cube Peak season AASI =10174431 𝑊ℎ/m2 Better than GRIHA cube for Peak season = 6292670−10174431 10174431 Better than GRIHA cube for Peak season = - 0.381522 = --38.1522 GRIHA cube Peak season AASI Design case peak season AASI GRIHA cube Peak season AASI Solar simulations for Apateu Paradise emphasize the efficiency of clustered massing over monolithic forms. By replacing a standard GRIHA benchmark cube 178 Wh/𝒎𝟐 with staggered, H-shaped residential blocks, average insolation dropped to 92 Wh/𝒎𝟐 . This 48% reduction in heat gain stems from strategic self-shading geometries. The design balances 57,061 sqm of habitable surface while maintaining optimized thermal comfort. These computational results prove that complex, rhythmic massing significantly lowers cooling loads in Ahmedabad’s intense subtropical climate. Insight of Solar Analysis of Massing

Typical Floor Plan Of Block- 2&3 Bhk Unit (566.634 Sq.M) Typical Floor Plan Of Block- 1&3 Bhk Unit (511.922 Sq.M) Floor Plans … Typical Floor Plan Of Block- 1&2 Bhk Unit (481.336 Sq.M) Living Room Kitchen Bedroom

Floor Plans… Typical Floor Plan Of Block- 1 Bhk Unit (415.927 Sq.M) Ground Floor Plan Of Club House (630.525 Sq.M) First Floor Plan Of Club House (550.25 Sq.M) Club House Utility

Services … The 2&3 BHK blocks serve as the primary residential anchor for the site, necessitating a highly refined BIM-driven service strategy to manage their high-density requirements in Ahmedabad’s extreme climate. The core of the hydraulic infrastructure is built upon a dual-storage logic: each block is supported by a 144,000 L Underground Sump providing a four-day emergency supply, and a 36,000 L Overhead Tank (OHT) located above the head room for daily gravity-fed distribution. Hydraulic and Sanitary Engineering: The plumbing architecture utilizes a two-way piping system paired with a two-vent configuration. This technical arrangement ensures balanced atmospheric pressure across the vertical stacks, preventing siphoning and sewer gas backups, which is critical for ten-story habitability. Waste management is localized per block via 59,400 L UG septic tanks, which transition through an IC chamber line to the centralized 270 sq.m Main STP for final treatment. Climate-Responsive Mitigation: To combat high energy consumption in a hot-dry region, split AC units are employed as a leaner alternative to centralized HVAC systems. The BIM layout meticulously manages condensate by routing all out-drip water directly into balcony floor traps. To prevent moisture interference within the building envelope, drainage is strictly segregated: the terrace and balcony floors utilize independent vertical pipelines, ensuring that heavy monsoon runoff remains isolated from primary sanitary waste streams. This integrated service network ensures that high-density habitation remains sustainable, technically sound, and climatically resilient. Typical HVAC Floor Plan Of Block- 2&3 Bhk Unit HVAC Isometric View HVAC Section

Services … Detail - B Detail -C Detail -A Typical Plumbing Floor Plan Of Block- 2&3 Bhk Unit DETAIL- B DETAIL- C DETAIL- A DETAIL- B &C PLUMBING LINE Plumbing

Indoor Day Light Analysis… The indoor daylight analysis for Apateu Paradise confirms that the self-shading, H-shaped massing effectively balances natural illumination with thermal protection. Across the development, the blocks achieve a high Useful Daylight Illuminance (UDI), ensuring habitable spaces receive quality light without excessive solar gain. Annual Daylight Performance The analysis across various floor levels shows consistent UDI values: Level 01: Achieves a UDI of 58.342%. Level 05: Maintains a UDI of 58.524%. Level 10: Reaches a peak UDI of 58.735%. BIM-Driven Electrical Integration: Given their role as the site's primary residential anchor, the 2&3 BHK blocks feature a highly detailed BIM electrical layout designed for high-density efficiency. The plan integrates specialized fixtures including LED strip lights, exhaust fan points, and inverters for sustainable energy management. To support the project's mechanical needs, the electrical grid specifically accounts for water motor pumps, geysers, and split AC units, the latter chosen for their lower energy footprint compared to centralized systems. This technical synthesis ensures the blocks remain performance-oriented and climatically resilient Annual Daylight Analysis Lvl-01 Udi-map Report: Annual Daylight Analysis Lvl-05 Report: Udi-map Annual Daylight Analysis Lvl-10 Report: Udi-map Typical 2&3 BHK Block’s Electrical Layout ELECTRICAL LEGENDS

Structural Details … Isometric Structure View Of 2&3bhk Block Beam Layout Of Block 2&3 Bhk Unit Column Layout Of Block 2&3 Bhk Unit 200 X 600 Mm Rcc Column 200 X 500 Mm Rcc Beam Section B Oht Section A Oht Detail -A Detail -B Detail -A Detail -B The structural framework of Apateu Paradise is composed of a reinforced concrete frame organized as a Stilt + 10 floor massing, reaching a peak height of 37.8 meters. This system utilizes a systematic grid of columns and beams to support the vertical load of the residential units while providing flexibility for the internal layout. The building envelope is constructed from high-performance materials designed for thermal resilience. The walls consist of AAC blocks with recycled cellulose insulation, while the roofing system utilizes aerated concrete slabs finished with clay tiles. Internally, the units maintain a floor-to-floor height of 3.15 meters, offering clear interior heights between 2.42 and 2.62 meters. Vertical circulation is managed by a central core housing passenger and fire lifts, with an Overhead Tank (OHT) integrated above the head room to facilitate efficient, gravity-fed water distribution across all ten floors.

Energy Analysis… The sustainable framework of Apateu Paradise is built upon high-performance building envelopes designed to mitigate Ahmedabad’s intense heat. The wall assembly utilizes a triple-layer configuration featuring AAC blocks and a 50mm recycled paper cellulose core, achieving a superior U-Value of 0.306 W/m^2 K. Roofing further enhances thermal resistance through aerated concrete slabs and clay tiles, maintaining a U-Value of 0.931 W/m^2 K., while high-efficiency Saint- Gobain SGG PLANIT glazing regulates solar transmission. Energy simulations across the ten-story blocks reveal a remarkably low Energy Performance Index (EPI) of 57.305 kWh/m^2. While the stilt and first floors consume slightly more energy at 62.59 W/m^2, optimized residential levels (2nd to 8th) drop to $55.58\text{ kWh/m}^2$. Shadow analysis during the Summer and Winter Solstices confirms that the H-shaped clustered massing facilitates significant self-shading, naturally reducing the cooling load which accounts for the vast majority of the site’s district cooling energy. To offset operational demands, the project integrates a massive 4,234 m^2 solar PV array across the rooftops. This system generates an estimated 1,023,083 kWh/year, providing an energy offset of approximately 26.82 per total built-up area. By synthesizing advanced material science with renewable energy harvesting, the development achieves a robust ecological balance, ensuring long- term thermal comfort and reduced utility costs for its inhabitants. Shadow Analysis Shadow Analysis for summer Solstice (June 21st) 9:00 am 16:00 pm Shadow Analysis for Winter Solstice (December 21st) 16:00 pm9:00 am PV Energy Calculation PV/TBA= 1023083/38139.65 = 26.824 Dc System Size Calculation = 𝑅𝑜𝑜𝑓 𝑎𝑟𝑒𝑎 𝑥 0.8 10 = 4234 𝑥 0.8 10 = 338.72 Kw Pv Energy Generation Calculation = 525,920 38771.452 = 13.565 Kw Energy Model Data_iteration-3 External And Partition Aac Block With Plastered Wall Internal Floor Rcc Roof External And Partition Aac Block With Plastered Wall Uvalue 0.306- Internal Floor Rcc Roof Uvalue 0.931- External Floor Rcc Roof Energy Model Data General Lighting Glazing Total Solar Transmission (SHGC) - 0.537 Visible Transmittance - 0.681 U-value (W/M2-k) - 1.807 External Floor Rcc Roof Uvalue - 0.931 EPI 2&3bhk block Energy model data_ LVL-10Energy model data_ LVL-06Energy model data_ LVL-01

Coa … A Living Canvas of Connector and Learning COA (College of Architecture) envisions as a dynamic landscape — a place where learning, art, and community converge in an open, boundary-less environment. More than a built form, the campus is conceived as a powerful spatial advocacy that embodies architectural integrity through its style, significance, and authenticity. The project is guided by biophilic design principles to strengthen the connection between people and nature. Existing native trees, including neem, have been preserved and integrated into the master plan, while replantation strategies ensure a sustainable balance— achieving a 50:50 ratio between green cover and built structures. This campus is not just a setting for education but a living, breathing ecosystem for continuous learning, cultural expression, and environmental harmony. Project : Academic project Total plot area : 64355.74 Square Meter Total OSR : 6435.5 Square Meter Total Build-up : 15,280 Square Meter Location : Velachery, Chennai (Near railway station)

MONTHS 10:00 AM 1:00 PM 5:00 PM ADI mid-July to mid- August AVANI mid-August to mid- September PURATTA SI mid- September to mid- October AIPPASSI mid- October to mid- Nov KARTTIK AI mid- November to mid-Dec MARKAZ HI mid- December to mid- January MONTHS 10:00 AM 1:00 PM 5:00 PM TAI mid- January to mid- February MASI mid- February to mid- March PANKUNI mid-March to mid-April CHITTI RAI mid-April to mid- May VAIKASI mid-May to mid- June ANI mid-June to mid-July Analysis… 9 am 6 am 7 am 8 am 9 am 10 am 11 am 11 am 10 am 9 am 8 am 7 am 6 am 7 am 8 am 10 am 11 am 5 pm 6 pm 5 pm 4 pm 3 pm 2 pm 1 pm 1 pm 2 pm 3 pm 4 pm 5 pm 6 pm 7 pm 6 pm 4 pm 3 pm The Common Shadow has been examined on a Tamil-year basis. in order to analyze the common shadow directions. The typical shadow position in the northeast is from September to May. Therefore, the courtyard and open area must be planned in a northeastern orientation. Typically, college sessions are from 8:00 am to 5:00 pm. Appropriate shade is necessary for outside open areas like as stalls, play areas, oats, and waterfront dining areas. it has primarily been utilized after 2:00 pm. Shadows have been cast toward the northeast from October to March. Shadows have been oriented toward the southeast. Velachery experiences a predominantly hot and humid climate, with the peak summer season extending approximately 2.3 months—from late April to early July—characterized by average daily high temperatures exceeding 96°F (35.5°C). May marks the hottest period, with mean temperatures ranging from 99°F (37.2°C) during the day to 82°F (27.7°C) at night. Conversely, the cooler season spans around 3.3 months—from late October to early February— offering relatively milder conditions. January is the coldest month, with average temperatures ranging between a daytime high of 84°F (28.9°C) and a nighttime low of 70°F (21.1°C). This climatic context informed the project's passive design strategies—emphasizing solar orientation, thermal massing, natural ventilation, and shaded transitional spaces to enhance occupant comfort and energy performance. MONTH 10:00 AM 1:00 PM 5:00 PM OCT NW NE NE NOV NW NE NE DEC NW NE NE JAN NW NE NE FEB MAR NW NW NE NE NE NE APRIL E SE SE MAY SW SE SE JUNE SW SE SE JULY SW SE SE AUG SW SE SE SEP NW SE SE SHADOW ANALYSIS (shadow direction ) Light and Shadow AnalysisUser Analysis Adults Teachers Students Visitors NeedsWantsActivityEmotions Good Experience Excitement Knowledge and awareness on society problems Support of calm and pleasant learning Educate passionate students Education on culture by needs Entertainment Trend Educate by live case study Contribution to society Contemplate art and science Passions for other activities Share experience Interacting with all academic batches Interacting with technology Live performance to support knowledge gain Practical learning workshops Calm Excitement Willing to learn Experienced Passionate Curious 01. People 02. Activities 03. Relationships 01. Site 02. Environment 03. Quality 01. Initial Cost 02. Life-style cost 01. Past 02. Future 03. Present Individual Small group Large group Programmatic Concept People Grouping Function Form Economy Time Average micro-climate Hot temperature(°F) Hot temperature(°F) Outcome of Analysis Common shadow Light and Shadow Analysis Average micro-climate

Improved natural lighting to promote good impacts on physical and mental wellness. Living elements such as plants, trees, and water were incorporated to develop an aesthetically and elegant appealing scene. Natural vistas helps students to communicate to the natural environment. Every environment may benefit from the calming visual appeal of integrated organic textures and highlights. An additional academic floor was introduced to establish a clear vertical zoning strategy. The upper levels are designated as secure, private domains—accessible exclusively to students and faculty—ensuring focused academic environments removed from the public interface. This upward transition enhances spatial hierarchy, separating collaborative and social functions from concentrated learning zones, while optimizing vertical circulation and institutional privacy. Passive design strategies are seamlessly integrated into the architecture through a series of internal courtyards and green punctures that promote ventilation, daylighting, and visual connectivity. The spatial rhythm is punctuated by alternating shaded terraces and landscaped balconies, creating interactive zones where students can engage in informal discussions and collaborative work within a comfortable microclimate. These transitional spaces function both as thermal buffers and social condensers, drawing inspiration from tropical verandas. The site was initially zoned into three distinct layers—public, semi-public, and private—establishing a clear spatial hierarchy. This zoning strategy informed the programmatic distribution and circulation flow, ensuring functional clarity, controlled access, and a seamless transition between communal, academic, and restricted areas within the campus fabric. Informed by light and shadow analysis, the ground floor blocks are strategically classified and oriented as distinct geometric volumes. This spatial arrangement responds to solar movement, optimizing daylight ingress while minimizing glare and heat gain. The formal geometry not only enhances passive performance but also establishes a strong visual order and legibility within the site layout. The massing strategy employs the architectural concept of floating volumes, where a low-profile and porous spatial organization enhances cross-ventilation and environmental responsiveness. A deliberate horizontal articulation defines each level, with the cantilevered upper floor not only reinforcing the volumetric dynamism but also functioning as an integrated shading devices. This design serves as a live case study in achieving expansive column-free interiors, utilizing long-span structural systems to create fluid, open-plan environments that promote comfort, flexibility, and spatial continuity. The building's form is carefully calibrated to optimize daylight penetration while mitigating solar heat gain—primarily through deep- set terraces and strategic overhangs that provide passive shading and contribute to the overall climatic performance of the envelope. PUBLIC ZONE SEMI-PUBLIC ZONE PRIVATE ZONE Mass and Site Evolution… Incorporated Biophilic Design Maximum plot area with no green Incorporating maximum plot area with green. Concept development Massing Zoning: Admin Academic Residence Labs and library Entry Recreation Following a core or circular approach for easy connectivity Incorporating Biophilic design like adding landscape feature for better connect to nature Vertical Zoning Site Zoning

The site's modules can effectively manage the high volume of visitors during workshops and events, with the design dividing and steaming people into several public areas. A key design objective is to foster informal interactions, encourage interdisciplinary exchange, and maintain a human-scale environment. The spatial organization supports fluid movement and social connectivity, promoting both individual contemplation and collective engagement. Responding to contemporary educational, the campus integrates a diverse range of programs including academic buildings, resource centers (library and workshops), residential facilities (hostels, guest housing, and staff residences), and vibrant communal zones such as canteen plazas, interactive courtyards, and recreational pockets. Site… Academic Labs & LibraryLabs & Library Hostels Admin Food Court OSR Parking Playground & Back side Bus parking Site Pathway Entry Auditorium Admin Parking View Direction Summer Sun Winter Sun Shade on wall lower cooling load Deciduous trees allow sun warm mass in winter Improved air and visual quality by trees in-front of the facades, It may control noise as well from near by surroundings Entry Academic Exterior Parametric Structure

Ground Floor … The administrative area serves as a common area between the auditorium and the classroom. Administrators fall under the public domain. The semi-public areas of the auditorium, playground, and OAT have been set apart from the academic building to minimize noise disturbances. The academic area, labs, and hostel reception are all considered private zones. The Pavilion's walkway and pavilion structure in academic block route on the bottom level of the complex connects all the areas. Every space has been covered in greenery and water. It does enhance the places' aesthetic and cognitive qualities. The evergreens served as a physical, visual, and auditory barrier. Admin Entry OAT Sun Dial Sun Dial Beyond its use as a timepiece, the sundial becomes a spatial and symbolic element that unites the fields of design, art, and science. The environmental consciousness, temporal consciousness, and the lyrical interaction between architecture and time is all reinforced when a sundial is included into a campus design. In theoretical terms, a sundial works by using a gnomon, or vertical component, to cast a shadow on a surface that has been calibrated and is frequently oriented in relation to the Earth's axis. Precise geographic orientation and sun angles dictate its precision, which makes it an ideal instrument for solar research. A sundial serves as a pedagogical element on academic campuses, illustrating heavenly rhythms and promoting awareness of natural cycles. Designers may maximize building orientation, shading devices, and daylighting methods by analyzing sun trajectories using sundial principles. View Direction Section-B Section-A

Ground floor near admin Site Pathway Ground floor center of academic blockGround floor near pavilion in North-east

To reduce solar heat gain, buildings are oriented as efficiently as possible. The spaces are designed to provide continuous airflow between apertures. Aligned windows, movable vents, and small floor plates guarantee air flow, which removes heat and preserves thermal comfort. Stack ventilation works on the idea of warm air rising by pulling cold air in and naturally venting hot air through vertical gaps, atriums, or clerestory windows. Shaded outdoor areas serve as social transitions and temperature buffers. Internal courtyards produce microclimates and lower ambient heat. By encouraging evapotranspiration and reflecting heat, these characteristics aid in general cooling. Created a studio culture based on architectural discourse and environmental responsiveness by erasing the distinctions between formal and informal, constructed and open. The philosophy behind the design of the studios is barrier-free. There are jali windows on the hallway side of each studio. Studios have been categorized as junior and senior so that they may communicate and share ideas. The first level is occupied by first- through third-year students. PG, fourth, and fifth graders' studios are located on the second floor. Post-tension waffle slabs have been utilized for all floor slabs in order to maintain a long span with fewer column design camps. Academic &Hostel Floors … Flexible drafting tables with storage for studio View Direction First floor’s Academic View First floor’s Interactive Space First floor’s parametric view First floor plan Vertical Circulation Studio Lobby and Living Room Office, Lab and Library Non-academic staff room Bedroom and Sick room Other activity areas Service and storage Toilet Parking Academic staff room Section-C Section-D Second floor plan

Villa &Auditorium … Stage Speakers Seatings The Auditorium is situated in the site's northwest direction. Admin is a popular location where people may enter the auditorium. It can accommodate 800 people in its seats. Lobby areas have been furnished with polished concrete floors and exposed brick. An auditorium's opulent interior has marble and acoustic panels. It features a dressing room on stage. A dedicated lounge and separate restroom for both performers and VIPs have been constructed in the backstage area. Every entrance has a ramp that has a 1:12 ratio to make it easier to get to the stage; even the auditorium's stage has a ramp for special needs. Post tension slabs have been applied to common language portions of the auditorium for a longer period of time. The food court is situated across from an auditorium, making it convenient for guests and students to dine while watching performances. On the east side of the property, facing the lake view and behind the oats, is the two-bedroom staff villa. Students have been exploring here using the amphibious floating home approach. The house began to float as the area began to flood because of the polished marble flooring and lightweight concrete slabs used for the walls and slabs. Ground floor plan First floor plan Section A Section B Isometric view of Auditorium Staff Villa Ground floor plan First floor plan Staff Villa

Parametric Designs… This portfolio highlights a transition from static forms to responsive, data-driven systems through advanced computational workflows. The research explores "Adaptive Fluidity," utilizing Grasshopper and Kangaroo to create a parametric skin that mimics biological systems. These exercises range from non-generative louver modulations that utilize Graph Mappers for rhythmic waves to complex NURBS surfaces and massive data trees managing over 1,500 panels. By integrating environmental data with geometric design, the work achieves a 40% reduction in peak solar gain while maintaining 60% porosity. These prototypes demonstrate how computational logic can synthesize complex spatial requirements into high-performance architectural shells, effectively balancing structural rhythm, solar shading, and sculptural aesthetics.

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