Hello, I am Alesh Goti, a registered architect with the Council of Architecture, India, bringing 10 months of after graduation professional experience. As a qualified computational designer specializing in computational BIM workflows through the Autodeskcertified platform Novatr (previously OneistoX), I excel in managing projects from conceptual design to documentation and site supervision. With a passion for continuous learning and a strong interest in AI and sustainability, I am committed to integrating innovative solutions as I dive deeper into the architectural practice.
With its interactive, kinetic triangular LED panels adorning the exterior façade, the Pixel Arena presents itself as a pixelated manifestation of parametric ingenuity. Comprising red glass panels and a white metal framework, the pavilion embodies a cohesive design ethos. The kinetic facade dynamically responds to human motion, orchestrating the opening and closing of triangular LED panels while transitioning hues from pristine white to vibrant red in accordance with specific movements.
Internally, a series of stacked cubes offer patrons a space to recline and savor moments over a cup of coffee or in the company of cherished companions. Furthermore, the pavilion’s airy openness invites diffused sunlight and fresh breezes, fostering a well-ventilated ambiance within its confines.
Base - Prome Ai Post production - Photoshop
“It feels like a different world in there.”
“They look so carefree and happy.”
The pavilion concept focuses on attracting and engaging visitors through interactive installations that evoke positive memories and reduce stress, creating a tranquil and uplifting environment.
“I can almost feel the energy from here.”
“This place seems to melt away the stress.”
The pavilion seating, based on stacked cubes, is designed to facilitate group gatherings, fostering community interaction and shared experiences.
The pavilion features a halfcovered design with kinetic panels, allowing for fresh air circulation while providing openness yet enclosure. It creates a well-lit space ideal for winters, ensuring a comfortable and dynamic environment for all visitors.
The kinetic panels add a playful character by interacting with movement; when someone passes by, they open up, inviting interaction with those inside the pavilion. This dynamic feature enhances engagement and connectivity among visitors.
Design development
Defining base geometry for the outer shell
Framing the outer shell
Adding Glass panels to the upper portion of the structure
Carving-out internal mass
Defining base geometry for sitting area
Framing defined inner sitting space
Inserting interactive triagular LED panels to the outer shell. Click the box
Covering inner sittings with glass panels
Rhino Grasshopper
sarvasva
A research and learning center for the welfare of the farming sector.
Lathi, Gujarat, India
2023
500 sqm
Design Thesis
Research, Context Study, Architectural Design, Visualization, Diagramming, 3D Modeling.
This project aims to explore architectural solutions, to understand the overall characteristics of the community while creating an area that can truly reconnect people to their inherent being of working the fields. The solution could be linking diverse agricultural subfunctions by a multidisciplinary approach that helps bring agriculture back in the mind of people, in the everyday discussions. City residents, researchers, students, all converging around a common purpose, growth of life through architecture.
To achieve this, the concept is the integration of education and agriculture. A built environment intertwined with fields’ pattern creates different types of spaces and continuous surfaces. It connects functions, people, and vegetation.
context study
During the site context study, it was observed that the surrounding area hosts numerous brick, steel, and other manufacturing units. This presents a valuable opportunity to source building materials locally, which not only supports the regional economy and reduces transportation emissions but also creates employment opportunities. Incorporating these local resources adds a significant layer of sustainability to the envisioned center of learning.
Site justification
In the agricultural heart of Saurashtra, the site benefits from diverse geographic zones, seasonal river proximity, and strong local farming ties. Its highway location ensures high footfall and connectivity, while nearby industries enable sustainable, local construction. Ideal for a learning center promoting sustainable agriculture and community engagement.
Site
The core concept was to create a centre where farmers could meet, interact, exchange ideas, and learn collectively. To support this, the design focuses on creating a space that feels familiar rather than institutional. Local materials, traditional construction techniques, and village-inspired spatial patterns are integrated to evoke a sense of belonging and make the centre feel homely and culturally resonant.
Large open space catering major events and gatherings
Circulation within the village
Informal sittings (Edge treatment)
Pause points Inviting informal activities
Courts having different activities and greens
Padar
Sheri
Otlo
Street pockets
Faliyu
Local village fabric case-study
Core idea
Preparing raw mix of clay + sand + 10% cement + straw
Pouring raw mix in molds
Preparing raw mix of 5 clay + 1 sand + 1 straw
Mixing and treatment of raw mix Adding Water and straw
Preparing mixture and hydrating wall surface
Breaking stones into ideal sizes
On-site learnings
Excavation for stone foundation
Making references using thread and steel bars
The visit to one the village was aimed to study traditional construction techniques and local materials for sustainable, climate-responsive design. Learning from artisans and documenting the process helped integrate vernacular methods that improve environmental performance and community connection.
Sun-drying of molded bricks
Ready for construction after 3-4 weeks
Stone masonry on concrete P.C.C.
Applying mud plaster on wet wall surface
Adobe bricks
Material making and application process
Stone masonry
During the design development stage, the central placement of the Farmer’s Research Design Centre led to reduced space for essential agricultural elements such as farming land and polyhouses. This configuration also weakened the intended resemblance to the organic, decentralized structure of the local village fabric, which was a key conceptual driver. A reevaluation of the spatial hierarchy became necessary, shifting focus from institutional centrality to a more balanced integration of built and unbuilt spaces. This adjustment emphasized the importance of aligning spatial planning with conceptual intent and highlighted the value of iteration in achieving contextual and functional coherence.
The design concept focuses on fostering interaction through the creation of multiple shared spaces. Built units are strategically staggered to form interstitial “stitching spaces” that serve as informal gathering zones. These spaces are enhanced with eucalyptus pergola structures and integrated seating to encourage social engagement and relaxation. At the master plan level, the layout draws inspiration from the identity of a local village, incorporating a grid-based planning approach that ensures functional connectivity between the research centre and surrounding farming lands.
Sarvasva
Sarvasva Wall sections
200mm thick
R.C.C tie beam
400mm thick adobe brick wall
Traditional mud plaster
Traditional wooden window (Locally crafted)
Vertical steel roof member (50X5mm) Both side
Inclined steel roof member (25X5mm)
Slit for ventilation
Locally made mud-brick jali
200mm thick
R.C.C. tie beam
200mrn thick R.C.C. plinth beam
300mm thick stone plinth
Stone foundation
400mm thick stone wall
Sarvasva
Spine towers
Mixed-use skyscrapers with parametric interventions
The portfolio project explores architectural project phases, from concept to documentation. Generative tools like Wallecie and Galapagos are utilized for form-finding and optimizing compliance with site-specific regulations, ensuring efficient use of FSI and other requirements. Following this, Rhino enables innovative design exploration, with Grasshopper facilitating rapid iteration and complex geometry analysis. Transitioning to Revit ensures accurate construction drawings with its parametric modeling and coordination tools. Speckle aids seamless data exchange between Rhino, Grasshopper, and Revit, maintaining consistency.
The project aims to demonstrate optimal plugin or software usage, discerning between identical or similar tools, and establishing suitable workflows based on their respective pros and cons. This comprehensive approach emphasizes efficient and creative navigation of architectural projects.
Through iterative analysis of various designs generated using the evolutionary solver “Wallacei,” valuable insights into each solution’s performance and alignment with project objectives were obtained. This process provided crucial data to inform decision-making. Ultimately, an optimal base geometry was derived, laying the groundwork for further refinement and development in subsequent design phases.
Design development in Rhino + Grasshopper
As the design evolves, Grasshopper, Rhino’s parametric design plugin, is employed to generate complex geometries, explore design iterations, and analyze various parameters.
vegetation
Podium floors
Stairs and
Cores
Structure Floors
Building envelope
Detailing + documentation stage
workflow
During the development stage, speckle allows geometry to be sent from Rhino to Revit, ensuring all stakeholders access the latest information, reducing errors, and enhancing project management.
Speckle’s version control and data tracking streamline communication, making workflows more efficient and cohesive. Speckle enables seamless coordination and collaboration in the AEC industry by facilitating real-time data exchange across platforms like Rhino, Revit, AutoCAD, and Grasshopper.
Speckle
Speckle
AutoCad
SketchUp
Grasshopper
Blender
Unreal engine
Dynamo
Revit
Rhino
Rhino
Speckle
Revit
Speckle geometry
Revit geometry
Rhino geometry
Design development stage (Facade)
Rhino
Grasshopper
Lunchbox
Panneling tools
Speckle
Revit
Following this, directshape to revit geometry feature of Speckle enables seamless transitions between Rhino and Revit, allowing for quick analysis and documentation of geometries during the development stage. This iterative process ensures that both design and technical analysis are refined efficiently and accurately.
Speckle Revit + Dynamo
Rhino
Speckle geometry
Rhino geometry
Detailing + documentation stage (Facade)
Rhino Grasshopper
Speckle
Revit
Speckle transfers both geometrical data and metadata, crucial for comprehensive project management. This enriched data allows the creation of native Revit families from Rhino geometry, facilitating accurate scheduling and documentation. This enhances interoperability, streamlines workflows, and improves project efficiency.
Speckle
3-point
Rhino + Grasshopper
Points + metadata extracted from rhino
Data sent to speckle to place adaptive components directly in revit
Design development stage (Canopy)
Converged Mesh Frame and structure
Rhino Mesh Refined Mesh Rhino Surface
Rhino Grasshopper kangaroo Click
Documentation stage (Canopy)
Rhino Grasshopper
Rhino.Inside.Revit
Revit
Rhino.Inside.Revit was used to seamlessly integrate complex parametric geometry from Rhino and Grasshopper to Revit. This feature streamlined the process of transferring intricate designs, enabling the use of advanced parametric models directly within Revit. By bridging these powerful tools, Rhino.Inside.Revit enhances design workflows, ensuring detailed, complex geometries are accurately reflected in Revit for further development and documentation.
Rhino + Grasshopper
City Auditorium
An auditorium that harmonizes Form and Function
Location Year Area
Type
Contribution to Project
Surat, India
2021 (B.Arch, Sem-5)
18000 sqm
Proposed studio project
Form-finding, Design, Diagramming, Visualization
This project, undertaken in the Technology Vertical Design Studio, concentrated on shell structures, materials, and technological aspects to create an iconic architectural piece. The aim was to design a structure that stands out and becomes a landmark in the rapidly developing context of Surat. The project brief included an auditorium with a capacity of 800-1200 visitors and exhibition spaces, catering to the future cultural and social needs of the city. This focus on innovative structural solutions and advanced materials ensures the building’s prominence and functionality, reinforcing Surat’s identity as a burgeoning urban center.
The site, situated on the bank of the TAPI river on the outskirts of Adajan-Pal, lies within a rapidly developing area of Surat. Spanning 18,000 square meters with dimensions of 150x125 meters, the context features ample open spaces evolving with time. Positioned in the future developed area of Surat, the site offers a prime opportunity to establish a landmark structure. Its connectivity to the main city is excellent, with well-maintained road networks and proximity to the airport, enhancing accessibility and prominence. This strategic location underscores the potential for the project to become a significant urban icon.
Base - Lumion Post production - Photoshop
The backstage area includes well-appointed green rooms, a music academy, and ample storage facilities. This comprehensive setup ensures performers have all the necessary amenities for a smooth and professional experience.
The main auditorium stage is highly equipped and offers seamless connectivity with the backstage area, ensuring smooth transitions during performances. It is designed to host large-scale events, providing top-notch facilities for both performers and organizers.
The auditorium seating, including balcony sections, is meticulously designed so that every angle faces the main stage. Enhanced with acoustic ceilings and dynamic LED lighting, it ensures an optimal viewing and auditory experience for all attendees.
The auditorium atrium, filled with lush greenery, separates the building into two parts and serves as a welcoming entrance. It seamlessly brings the vibrant outdoor landscape into the building, creating a serene and inviting atmosphere.
The black box theatre, with a 120-seat capacity, is perfect for intimate events and performances. It also serves as an ideal space for rehearsals, offering a versatile and flexible environment for creative expression.
Longitudinal section
The auditorium’s interior features a balcony space and acoustic ceilings integrated with LED lighting, enhancing the overall experience. This design not only improves acoustics but also creates a visually captivating ambiance for audiences, ensuring both comfort and engagement.
Auditorium view
The auditorium lobby, under a dynamic shell, features dense vegetation and well-lit circulation spaces, fostering a positive atmosphere and seamlessly reflecting the building’s contextual harmony and natural integration.
Lobby Area
Tensile Harmony
A facade design Inspired by King Fahad Library’s timeless elegance
Location Year Area
Type
Role
Riyadh, Saudi Arabia
2024
8700 sqm
Explorative project
Parametric modelling, Facade design, Ai integrated visualization, Animation
This explorative project delves into the architectural marvel of the King Fahad Library’s facade. By analyzing the nature of facade elements, sketching it, and generating a computational workflow to make it real, the project aims to recreate and understand the elegance of its modular tensile design. Through detailed analysis and innovative design techniques, this project demonstrates my approach to capturing architectural beauty, blending traditional sketching methods with advanced computational tools to create intricate geometries. This exploration not only highlights the facade’s aesthetic appeal but also showcases the potential of computational design in modern architecture.
Utilizing Grasshopper, Rhino’s parametric design plugin, the King Fahad Library’s facade was meticulously recreated. The Kangaroo tool within Grasshopper enabled precise control and optimization of tensile structures, ensuring both structural integrity and aesthetic harmony. By stacking modular tensile members in a specific arrangement, the desired geometry was achieved, facilitating construction while allowing flexibility in design. This blend of traditional principles and modern technology captured the elegance of the original facade.
Base - Prome Ai
Post production - Photoshop
Tensile
Design development
Perspective view
Converged tensile module
Stacked modules
Front view
Stacking process
Rhino Grasshopper kangaroo
Rhino surface Anchor points
Click the box to see tensile facade convergence animation
Photographs of King Fahad Library by Gerber architekten
Freelance work
Product design - A wavy parametric cladding panel for a bungalow
The computational portfolio project I embarked upon centers around the creation of a woven panel tailored for a residential wall, serving as a testament to the synergy between computational design and architectural aesthetics. By employing advanced computational techniques, the project achieves a harmonious fusion of intricate weaving patterns, elevating the visual allure and functionality of the residential environment.
Integral to the project’s success was the close involvement and coordination with the client to ascertain the ideal design solution. This collaborative process entailed multiple design iterations, allowing for thorough exploration and refinement of concepts until reaching an optimal outcome. Through effective communication and iterative feedback loops, the project evolved dynamically, ensuring alignment with the client’s vision and objectives while leveraging the full potential of computational design principles. The result is a woven panel that not only enhances the aesthetic appeal of the residential space but also embodies the seamless integration of innovative design and client-centric collaboration.
Design development
Rhino Grasshopper Surface
Divide the surface, horizontally
Divide each curve in multiple segments with vertices, which are adjustable in 3-dimensions
Join all vertices and create interpolate curve
Set edge vertices at same coordinates to achieve seamless pattern
Give thichness with sweep to get 3D effect
a 3D wavy panel design comes to life through the integration of parametric design principles. Seamlessly blending innovation with customization, this design offers endless possibilities while maintaining a monolithic appearance. Dive into the realm of parametric design and witness the birth of a panel that not only captivates with its fluidity but also embodies the essence of seamless elegance.
