Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis

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Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis

Information

  • Project Name: Healing Patch: An Approach Towards Carbon Negativity
  • Student Name: Md Samuel Samin
  • Softwares/Plugins: Rhinoceros 3D , Ladybug Tools , Adobe Photoshop , Grasshopper , D5 Render , ENVI-met
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Excerpt: Healing Patch’ is an architecture thesis by Md Samuel Samin from the ‘Department of Architecture – North South University.’ The project aims to redefine urban development by transforming a conventional mixed-use superblock into a regenerative ecological system. Through low-carbon design, renewable energy, green infrastructure, and computational optimization, the project reduces environmental impact while restoring ecosystems, improving urban resilience, and creating people-centered, climate-responsive cities for Bangladesh.

Introduction: Cities are expanding rapidly, yet the built environment continues to drive carbon emissions, resource depletion, and ecological degradation.

Healing Patch proposes a regenerative mixed-use superblock that reimagines architecture as an active ecological infrastructure rather than a passive built form. Located within Purbachal New Town, the project consolidates fragmented commercial plots into a unified urban system integrating residential, office, retail, and public functions.

Through computationally optimized massing, low-carbon materials, renewable energy generation, water harvesting, and extensive green integration, the proposal minimizes environmental impact while maximizing ecological performance. Five interconnected strategies—Unify, Regeneration, Edge Matrix, Extended Urban Realm, and Form Matrix—create a flexible framework that balances density with environmental restoration.

By transforming setbacks into productive landscapes, terraces into solar parks, and buildings into resource-generating systems, the project demonstrates how future urban development can actively reduce carbon emissions, regenerate ecosystems, and create resilient, people-centered cities for Bangladesh.

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Site Context

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Purbachal Masterplan
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Site Plan
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Site Analysis

The project is situated within Purbachal New Town, Dhaka’s largest planned urban extension developed by RAJUK, on a 20-acre site originally designated as a commercial zone. Strategically located adjacent to a proposed MRT station, a major highway, educational institutions, low-cost housing, and emerging residential neighborhoods, the site is positioned to become a future urban hub.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
RAJUK Proposed Future Scenario
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Site Images

Rather than following a conventional monofunctional commercial model, the proposal introduces a mixed-use regenerative superblock integrating residential, office, retail, and public functions. This transformation creates a pedestrian-oriented, environmentally responsive development that strengthens connectivity, activates public life, and establishes a scalable prototype for future carbon-responsive urban growth in Bangladesh.

Design Process

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Design Strategies

The design process is structured around five interconnected strategies that collectively transform a conventional commercial development into a regenerative urban ecosystem.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Unify

1. Unify – Consolidates fragmented plots into a single superblock, reclaiming underutilized setback spaces as continuous public and ecological infrastructure.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Regeneration

2. Regeneration – Integrates Urban-Healing-Transport (UHT) modules that combine vegetation, renewable energy generation, and water harvesting to actively restore environmental performance.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Edge Matrix

3. Edge Matrix – Reimagines setbacks as productive ecological buffers and civic spaces, enhancing biodiversity, public interaction, and local economic activity.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Extended Real and Form Matrix

4. Extended Urban Realm – Expands public life vertically through accessible terraces, rooftops, and elevated landscapes, creating a multi-layered civic network beyond the ground plane.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Form Matrix Extended
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Form Matrix Extended

5. Form Matrix – Uses computational simulations to optimize building morphology for daylight access, self-shading, wind permeability, and productive surface area. The resulting staggered form minimizes ground coverage while maximizing ecological surfaces, renewable energy potential, and passive environmental performance.

Together, these strategies create a flexible, high-density urban framework that balances environmental restoration, public life, and long-term adaptability, offering a scalable model for future regenerative development.

Final Outcome

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Masterplan and Exploded Axonometric
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Office Terrain Modules and Propagation
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Office Terrain Perspective

The proposal culminates in a regenerative mixed-use superblock that integrates residential, office, retail, and public functions within a unified ecological framework. Rather than maximizing ground coverage, the development concentrates density vertically, preserving extensive open landscapes, active green setbacks, and publicly accessible spaces that strengthen environmental and social performance.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Retail Courtyard Perspective
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Retail Solar Park Perspective

The ground plane becomes a pedestrian-first civic realm, while terraces and rooftops evolve into productive landscapes supporting renewable energy generation, water harvesting, biodiversity, and carbon sequestration. The three interconnected terrains respond to different urban demands while functioning as a single environmental system.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Residential Terrain Extended
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Residential Terraces Perspective 2
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Residential Central Courtyard

The Residential Terrain promotes adaptable living with regenerative veranda modules, the Office Terrain provides long-term programmatic flexibility, and the Retail Terrain serves as the environmental engine of the development, dedicating over 70% of its roof area to solar farming while enhancing natural ventilation through its massing.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Retail Terrain Plan and Ideology
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Retail Terrace Perspective | Edge Perspective 1
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Edge Perspective 2
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Model (1)

Computational optimization, passive environmental strategies, low-carbon materials, and integrated UHT modules significantly reduce embodied and operational carbon while improving daylight access, wind permeability, and thermal comfort.

Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Model (2)
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Model (3)
Healing Patch: Advancing Regenerative Architecture Towards Carbon-Negative Cities | Bachelors Design Thesis
Model (4)

Conclusion: More importantly, the project demonstrates that architecture can move beyond minimizing environmental impact to actively generating renewable resources, restoring ecological systems, and supporting resilient public life. Healing Patch establishes a scalable prototype where future urban growth becomes a catalyst for ecological regeneration rather than environmental degradation.

This is not a final answer but an adaptive solution for the urban realm of the future.

[This Academic Project has been published with text and images submitted by the student]

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