Courses Architecture Advanced Grasshopper 2.0: Integrating Voxel and Mesh Modelling Approaches

Advanced Grasshopper 2.0: Integrating Voxel and Mesh Modelling Approaches

This workshop explores advanced Grasshopper modeling techniques, focusing on integrating voxel and mesh approaches alongside essential data structures and mathematical operations.

Overview
Content
Instructors
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Date:

Dec 7, 8, 2024

Duration:

8 Hours

Difficulty:

Advanced

Language:

English

Certificate:

Yes

Registration:

€119.00

Tutor:

Amir Hossein

Members:

101.15 EUR (27.75%) discount

Recordings:

Available Indefinitely

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Introduction of the workshop:

Current design and architecture practice is highly adopted to use parametric modeling tools and procedural workflows. Such methods help designers to explore a wide range of outcomes for a defined design question. Conventionally, 3D software were limited to certain geometrical modifiers that could be used, but algorithmic modeling tools such as Grasshopper offer the possibility to develop custom modifiers in your design workflow. This workshop will comprehensively explore the Grasshopper environment and how this tool can be used for advanced 3d modeling procedures.

What You’ll Learn?

Fundamental understanding of algorithmic modeling in GH.

Precise control of Data structure flow in Grasshopper.

Apply mathematical operations and equations to create complex geometries, including foldable surfaces and structures.

Utilize physics and force simulation tools to generate tensile and minimal surfaces.

Explore mesh-based modeling plugins and strategies for designing intricate geometries and morphing surface patterns.

Develop skills to identify and apply appropriate modeling methods (mesh, NURBS, or voxel-based) for different design challenges.

Combine various Grasshopper tools and plugins to achieve advanced 3D modeling outcomes.

Advanced Grasshopper 2.0: Integrating Voxel and Mesh Modelling Approaches

Methodology:

This workshop will comprehensively explore several modeling methods in Grasshopper. First, we will go through the data structure in Grasshopper as it is the fundamental need for our next steps. Then, we will explore the use of mathematical operations and equations in Grasshopper. At this stage, we will practice modeling foldable surfaces and structures as they are well-related to mathematic operations. Physics and force simulation is the next part of this workshop, in which examples of tensile and minimal surfaces will be provided. Mesh-based modeling plugins and strategies will be covered to design complex geometries and morphing surface patterns. The other part of our workshop will focus in-depth on the voxel-based model and its integration. Students will work individually on their projects.

This workshop will explore different ranges of Grasshopper tools and plugins; in terms of typologies, we will use three main methods to produce geometries, Mesh nurbs, and voxel-based objects. For each method, we will provide different examples, understand the difference between them, and have the ability to identify the appropriate use of each of them.

What You’ll Use?

Highlights:

Content

Intro + PAACADEMY Updates (08:32)

Introduction to the workshop - PAACADEMY Updates

Foldable Structures in Grasshopper (35:23)

Modeling layered surfaces

This part focuses on creating foldable structures using Rhino and Grasshopper, exploring techniques for modeling layered surfaces and data management.

Advanced Grasshopper 3D Patterns (01:05:58)

Designing complex patterns using parameters

This session focuses on creating complex 3D patterns with Grasshopper, exploring dependent parameters and advanced data manipulation techniques.

Organic Curved Surface Patterns (51:36)

Organic patterns on curved surfaces

This part focuses on creating organic patterns on curved surfaces, emphasizing mesh topology and parameterized design techniques.

Growth Pattern Simulation (20:43)

Controlled growth patterns with Kangaroo

This part focuses on generating growth patterns using Kangaroo with controlled complexity.

Refining Growth Simulation Techniques (37:11)

Growth simulations & curve refinement

This part demonstrates refining growth simulations with iterative processes, curve smoothing, and surface generation techniques.

Advanced Minimal Surface Simulation (43:04)

Minimal surfaces via mesh relaxation

This session demonstrates the creation of minimal surfaces using Kangaroo, incorporating mesh relaxation, anchor points, and detailed mesh manipulations to achieve architectural forms.

Advanced Voxel-Based Modeling (52:59)

Volumetric modeling with seamless intersections

This session introduces voxel-based volumetric modeling using the Dendro plugin, showcasing its ability to handle intersecting geometries, create smooth transitions, and generate complex forms efficiently.

Mastering Volumetric Modeling Tools (55:06)

Advanced Dendro volumetric modeling techniques

This session focuses on intricate volumetric modeling using Dendro, enabling seamless geometry creation, scaling, and refinement.

Targeted Volumetric Design Techniques (29:35)

Targeted randomization for volumetric design

This session explores targeted randomization and volumetric modeling techniques to design seamless, complex 3D geometries with advanced control over structure and form.

Advanced Mesh Refinement Techniques (29:06)

Mesh manipulation and geometry refinement

This session concludes with insights into mesh optimization, selective patterning, and practical considerations for 3D printing using advanced modeling workflows.

Instructors

Amir Hossein

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Biography

Amir Hossein is a Ph.D. student in Architecture at Pennsylvania State University, specializing in Design Computing. His research focuses on computational design methods and digital fabrication, particularly in the area of additive manufacturing of concrete structures. This work aims to enhance automation in construction and promote sustainable architectural practices, reflecting his commitment to innovation in the field. Before pursuing his doctoral studies at Penn State, Amir gained six years of experience as an architectural and computational designer in Iran. During this time, he worked on various projects involving design optimization, complex 3D modeling, and computational workflows. This professional background has provided him with a strong understanding of how parametric design tools like Grasshopper can be effectively applied in real-world architectural practices. In addition to his research and practical experience, Amir has been teaching computational design software, including Grasshopper and its ecosystem of plugins, for several years. Through workshops and educational initiatives, he aims to share his knowledge and expertise, helping participants unlock the full potential of Grasshopper in their design practices and research projects.