EK-CAR

Title:

Redefining Mobility: The Organic-Adapted Car Project at ROTH Architecture

Project Overview:

Discover the intersection of automotive design and architectural innovation with the Organic-Adapted Car Project at ROTH Architecture. This ambitious endeavor redefines transportation as an immersive extension of the architectural experience, seamlessly blending with the natural surroundings of AZULIK to transport passengers into a harmonious realm where architecture and nature converge.

Innovative Design:

From its conceptualization, this project has pushed the boundaries of design and engineering. Every aspect of the vehicle, from its organic-inspired curvature to the intricacies of the interior, has been meticulously crafted to evoke wonder and foster a deeper connection with the environment. The result is a groundbreaking design that challenges conventional automotive norms and offers a transformative journey for passengers.

Team Collaboration:

I extend my heartfelt appreciation to the dedicated team at ROTH Architecture whose collaborative efforts made this project possible. Special recognition goes to Daniel Roque, our Design Lead, Estefanía Lopez and Manuel Sandoval, Computational Designers, Eduardo Ruiz and Javier Gaxiola, Computational Designers, Adrian, Technology Engineer, Alexandre Saccbel, Manufacturing Lead, Doria Reyes, Architect and Designer, and all other team members involved. Their tireless dedication and expertise have brought this vision to life.

Architectural Innovation:

The Organic-Adapted Car Project not only showcases our team's prowess in computational design and manufacturing but also reflects our commitment to pushing the boundaries of architectural innovation. Together, we have crafted more than just a car; we have created an unforgettable experience that redefines mobility in the context of architectural excellence.

CORAL_PARLEY

Title: Coral Revival

A Collaborative Installation with Parley in Cozumel

Project Overview

This installation, created in collaboration with Parley, is a 15-meter-long structure crafted from recycled ocean plastic, representing the devastating effects of pollution on coral reefs. Inspired by the endangered staghorn coral of the Mexican Caribbean, the piece mimics the bleaching caused by climate change. Visitors walk through this massive coral as if they were fish, experiencing firsthand the fragility of marine ecosystems.

Innovative Design

Designed parametrically in Grasshopper, the coral features a steel core with standardized bars for quick fabrication. Its striking form is a blend of art, architecture, and environmental activism, highlighting the urgent need to address plastic pollution.

Architectural Innovation

This project challenges traditional architecture by merging computational design and recycled materials to create a meaningful statement on ocean conservation and sustainability.

Innovations in 6-Axis

Title:

Pushing Boundaries with 6-Axis Digital Fabrication at Roth Architecture

Project Overview:

Step into the forefront of design innovation with Roth Architecture's exploration of 6-axis digital manufacturing. This groundbreaking technology is revolutionizing the realm of organic architecture, furniture design, and facade construction, allowing creators to seamlessly translate intricate digital models into tangible masterpieces.

Technological Integration:

At Roth Architecture, we harness the power of Grasshopper as a bridge to KUKA PRC, enabling us to push the boundaries of design possibilities. This integration facilitates precise milling capabilities for materials like wood and foam, empowering our designers to realize fluid forms with unparalleled efficiency and precision.

Unleashing Creativity:

With 6-axis digital fabrication, the synergy between Grasshopper and KUKA PRC opens new avenues for creativity and innovation. From sculptural architectural marvels to bespoke furniture pieces, our team explores the limitless potential of this technology to reshape the future of design.

Advancing Organic Design:

Through our commitment to advancing organic design, Roth Architecture is at the forefront of pushing the boundaries of what's possible in architectural and furniture design. By embracing 6-axis digital fabrication, we pave the way for a new era of creativity, where imagination knows no bounds.

ALULA ROTH ARCHITECTURE

Title:

Unveiling AZULIK AlUla Resort: A Technical Masterpiece by Roth Architecture

Project Overview:

Explore the intricate details of AZULIK AlUla Resort, a testament to innovation and sustainability crafted by the visionary team at Roth Architecture. Situated in AlUla's Nabatean Horizon District, this eco-luxury retreat seamlessly integrates with its surroundings while offering a haven for travelers seeking a unique experience.

Technical Excellence:

At Roth Architecture, we pride ourselves on technical excellence, and AZULIK AlUla Resort is no exception. Through meticulous site analysis and structural design, we utilized advanced computational tools to optimize every aspect of the project, ensuring both functionality and sustainability.

My Role:

As a Computational Designer, I played a vital role in shaping the technical landscape of AZULIK AlUla Resort. My focus was on optimizing spatial layout, integrating sustainable design principles, and ensuring seamless functionality across all aspects of the resort, from villa placement to facade panelization.

Future Outlook:

As AZULIK AlUla Resort comes to fruition, our dedication to architectural innovation and sustainability remains unwavering. Through collaboration and creativity, we aim to continue pushing the boundaries of what is possible in architecture, creating spaces that not only inspire but also endure for generations to come.














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COMPUTATIONAL DESIGN ROTH ARCHITCTURE

Title

Exploring the Boundaries of Computational Design at Roth Architecture

Project Overview:

At Roth Architecture, our commitment to innovation drives us to constantly explore the frontiers of computational design. Across all aspects of our projects, from initial concepts to structural analysis and fabrication, we harness cutting-edge technology and boundless creativity to redefine the possibilities of architecture.

Acknowledgments:

I extend my sincere gratitude to Luis Rivero, Manuel Sandoval, Eduardo Ruiz, and Rodrigo Diaz for their invaluable contributions as esteemed members of the Computational Specialist Department at Roth Architecture. Their dedication and expertise have been instrumental in our journey towards architectural excellence.

Role and Responsibilities:

As the Computational Design Lead, I oversee a talented team dedicated to assisting architects at Roth Architecture. Leveraging our advanced facilities, including a 6-axis robotic arm, water jet cutter, CNC wood router, ceramic 3D printer, resin printers, and filament printers, we integrate innovative ideas and geometric concepts into our daily design process.

Achievements and Contributions:

Our endeavors extend beyond traditional architecture. We have participated in prestigious competitions such as NEOM, explored facade panelization techniques, conducted comprehensive structural and climate analyses, developed pioneering methodologies for organic form modeling, and ventured into the realm of automotive design and fabrication.

Vision for the Future:

Together, we are reshaping the future of architecture through a relentless pursuit of excellence and innovation. By pushing the boundaries of computational design, we aim to inspire and revolutionize the architectural landscape for generations to come.

GAMERS TEMPLE

Title:

Gamer Temple: A Dynamic Venue for Gaming Events

Project Description:

Gaer Temple, conceived in 2017 as an academic venture, stands as a revolutionary paradigm in event architecture, specifically tailored for gaming enthusiasts. This innovative structure redefines traditional event venues, offering unparalleled adaptability and immersion for gamers and spectators alike.

Key Features:

At the core of Gaer Temple's design is its adaptive nature, capable of seamlessly adjusting to various environmental factors and attendee numbers. Each floor is meticulously crafted to accommodate diverse gaming activities, featuring VR kitchens, private gaming lounges, stress-relief cabins, and overnight accommodations, ensuring a comprehensive gaming experience for all participants.

Technological Integration:

Gaer Temple boasts a striking LED facade, aptly named the "Digital Canvas," which serves as a dynamic platform for real-time event updates, competition finals, and city-specific announcements. This seamless integration of technology elevates the gaming experience, fostering connectivity and excitement among attendees.

Impact and Innovation:

The inception of Gaer Temple marks a transformative shift in event architecture, transcending conventional static venues to embrace dynamic, responsive design principles. By prioritizing adaptability, innovation, and technological integration, Gaer Temple sets a new standard for immersive gaming environments, redefining the boundaries of event design.

Conclusion:

Gaer Temple stands as a testament to the transformative potential of architecture in cultivating immersive and inclusive gaming experiences. Through its innovative design and technological prowess, Gaer Temple emerges as a beacon of innovation in the realm of gaming events, promising endless possibilities for engagement and excitement.

PRAIA AUTOMATA

 
Author: Nacho Monereo TFM

Introduction: In the heart of Lisbon, an innovative coastal architecture project is changing the way we interact with our marine environment. With the honor of summa cum laude in my Master's Final Project at ETSAM, I am proud to present Praia Autómata: an integrated system that redefines the relationship between humanity and nature.

Project Description:

Praia Autómata is much more than a series of dykes. It is a vision that seeks not only to protect our shores but also to revitalize our aquatic ecosystems. Based on the utilization of natural formations, this system employs local materials and innovative construction techniques to create physical barriers that harmoniously integrate with the environment.

At a territorial level, our dykes erode gradually, creating new marshlands that promote biodiversity and reduce aquifer salinity. This unique approach is not only environmentally respectful but also offers a sustainable solution to the challenges facing our coast.

Methodology and Scales:

The design of Praia Autómata is based on a profound analysis of water flow in the estuary and wind movement. This understanding allows us to create structures that organically adapt to their surroundings, providing an effective and aesthetically pleasing solution.

On a practical level, the project consists of three blocks connected to a dredger, facilitating the construction of dykes using local dredged material. This methodology not only reduces costs and environmental footprint but also ensures that our structures seamlessly blend with the surrounding landscape.

Global Impact: What makes Praia Autómata truly special is its ability to be extrapolated to different parts of the world. By utilizing local materials and construction techniques, our project has the potential to transform how we address coastal challenges on a global scale.

Acknowledgments:

I want to express my profound gratitude to all the individuals who made this project possible. From my colleagues and mentors to the collaborators who contributed their expertise and dedication, each of you has left an indelible mark on Praia Autómata.

• Javier Murillo Hernández (Mury)
• Jacinto Moros Montañes
• Pablo López de Uralde Montes
• Estefanía Mejía Quintero
• Simon Azrack (render)
• Anna Burdeus
• Enrique Corres

Conclusion:

In a world where climate change and unchecked urbanization threaten our coastlines, Praia Autómata offers a vision of hope and possibility. By working with nature rather than against it, we can build a more sustainable and resilient future for generations to come.




//7 min

MYCELIUM AS CONSTRUCTION MATERIAL 

Project Type: Final Degree Project - 2017

Introduction:

The culmination of years of research and exploration, my Final Degree Project delves into the innovative realm of mycelium as a building material. Collaborating closely with Maria Mallo and drawing from personal projects, this endeavor represents a deep dive into the potential of fungi to inspire and shape our built environment.

Description:

My research work focuses on the development and utilization of mycelium biocomposites within lignocellulosic substrates. Through a comprehensive analysis of existing projects, methodologies, and competitive material assessments, I aim to showcase the versatility and sustainability of mycelium as a viable construction material.

The project serves as a compendium, offering insights into manufacturing recipes, methodologies, and competitive material analysis. Furthermore, it explores the integration of my findings into larger architectural endeavors, including Maria Mallo's Breeding Spaces project and my own Fungy House project, which was developed to provide further support to the research.

Key Components:

• Manufacturing Recipes
• Methodologies
• Competitive Material Analysis
• Integration into Architectural Projects
• Collaborative Efforts with Maria Mallo

Conclusion:

As the world seeks sustainable solutions for construction, my research highlights the potential of mycelium as a groundbreaking building material. By harnessing the inherent properties of fungi, we can not only create innovative designs but also contribute to a more environmentally conscious future.

Acknowledgments:

I extend my gratitude to Maria Mallo for her guidance and collaboration throughout this project, as well as to all those who contributed to its realization. Together, we are shaping the future of sustainable architecture.

FULL PDF 👀️👀️

TAICHUNG - TAIWAN

Title:

  Night Markets in Taichung, Taiwan

Project Description:

As part of the academic projects at ETSAM UPM, the intervention proposal for self-managed spaces in Taichung, Taiwan, focuses on the ephemeral nature of Night Markets in the region. The design innovation lies in the creation of a retractable articulated structure, tailored to generate covered public spaces within these dynamic environments.

Key Features:

The proposed design introduces a prototype utilizing reinforced textiles with 3D printing technology, capable of withstanding the stresses inherent in supporting structures. This integration of advanced materials and fabrication techniques ensures both durability and adaptability, addressing the unique challenges posed by the ever-changing landscape of Night Markets.

Technological Integration:

Central to the project is the utilization of 3D printing for the fabrication of key structural components, allowing for precision engineering and customization to meet specific design requirements. The articulated nature of the structure enables seamless adaptation to varying spatial configurations, optimizing functionality and usability.

Impact and Sustainability:

By offering a solution that combines innovation with sustainability, the intervention aims to enhance the accessibility and resilience of self-managed spaces in Taichung. The provision of covered public areas not only enriches the overall urban experience but also fosters community engagement and social cohesion within Night Market environments.

Conclusion:

The intervention proposal for Night Markets in Taichung represents a harmonious blend of architectural innovation and cultural sensitivity. Through the integration of advanced materials and fabrication techniques, the project demonstrates the potential to transform ephemeral spaces into enduring hubs of activity and vitality, contributing to the vibrancy of urban life in Taiwan.

DIDEACION_GRÁFICA

Title:

Graphic Ideation: Exploring Fungal Growth through Computational Design

Project Description:

The Graphic Ideation project, undertaken in 2017 as part of academic pursuits, delves into the fascinating realm of fungal growth. Under the guidance of project director Javier Pioz, the investigation unfolds through a combination of computational design, model making, and 3D modeling techniques.

Research Focus:

The primary focus of the project is to study the lifecycle of fungi, from spores to mycelium, utilizing innovative methodologies rooted in computational design principles. Through meticulous exploration and analysis, the project aims to unravel the intricacies of fungal growth and visualize its dynamic processes.

Methodology:

The research methodology encompasses various stages, including computational modeling to simulate fungal growth patterns, fabrication of physical models to represent different stages of development, and 3D modeling to create detailed visualizations of fungal structures.

Innovation and Insight:

By harnessing the power of computational design, the project offers insights into the complex and often overlooked world of fungal biology. Through graphical representation and visualization, researchers gain a deeper understanding of fungal growth dynamics, paving the way for potential applications in fields such as biology, agriculture, and architecture.

Conclusion:

The Graphic Ideation project serves as a testament to the interdisciplinary nature of research and design. By combining computational techniques with traditional model making and visualization, the project sheds light on the intricate processes of fungal growth, inspiring further exploration and discovery in the realms of science and design.

FULL PDF

PILLA PIYA

Title:

Woodland Play Park: Winner of the Fast Wood Festival Competition

Project Description:

In 2019, our team clinched the top prize at the Fast Wood Festival for our innovative design of a playful space in the heart of Daroca. Collaborating closely with Jacinto Moros and Pablo Lopez de Uralde, we crafted a vibrant wooden playground that now graces the town square.

Key Features:

The Woodland Play Park is a testament to the versatility and beauty of wood as a building material. Designed to engage and delight children of all ages, it features a variety of interactive elements constructed entirely from wood. From climbing structures to balance beams, each component encourages imaginative play and physical activity.

Innovation and Collaboration:

Our success in the Fast Wood Festival competition was the result of a collaborative effort, combining our design expertise with the craftsmanship of Fast Wood Festival's construction team. Together, we brought our vision to life, creating a space that celebrates the natural beauty of wood while providing endless fun for the community.

Colorful Accents:

To further enhance the playful atmosphere of the park, we incorporated vibrant ribbons and colorful accents throughout the design. These elements add a whimsical touch to the wooden structures, inviting children to explore and interact with their surroundings in new and exciting ways.

Conclusion:

The Woodland Play Park stands as a testament to the power of collaboration, creativity, and sustainable design. As a winner of the Fast Wood Festival competition, it serves as a model for how wood can be utilized to create engaging and environmentally friendly spaces for communities to enjoy.


 http://www.fastwoodfestival.com/  

MALI

Title:

Innovative Design: The Mali Project

Project Description:

In 2017, our team embarked on a bold architectural endeavor with the Mali Project, aiming to revolutionize traditional building approaches. Collaborating with architect Pilar Briales del Amo , along with Pablo Lopez de Uralde and Laura de Torres, we conceptualized a groundbreaking design solution that seamlessly integrated program requirements, access points, and ventilation without cluttering the square with conventional elements like chimneys or canopies.

Key Features:

At the heart of the Mali Project lies a singular architectural gesture: a prominent crack that ingeniously addresses multiple design challenges. This distinctive feature, spanning just two floors, effectively mitigates the risk of an overly deep central courtyard while maintaining a cohesive aesthetic. Through the strategic use of three modular panels, the entire façade is elegantly crafted, offering a visually striking yet functional solution. Additionally, two ramps discreetly facilitate both visitor and goods access, doubling as emergency exits for enhanced safety.

Collaborative Endeavor:

The success of the Mali Project is a testament to the power of collaboration and interdisciplinary teamwork. Working closely with seasoned architects and aspiring students, we leveraged diverse perspectives and expertise to push the boundaries of conventional design thinking. Together, we turned a visionary concept into a tangible architectural reality, setting a new standard for innovation in the field.

Conclusion:

The Mali Project stands as a testament to our team's commitment to innovation and excellence in architectural design. By reimagining traditional conventions and embracing unconventional solutions, we have created a space that not only meets functional requirements but also inspires awe and admiration. As we continue to push the envelope of architectural innovation, the Mali Project serves as a beacon of creativity and ingenuity in the field.