BIO

ELIF ERDINE is an architect and researcher.

Currently, she is a PhD Candidate at the Architectural Association (PhD in Design, Advisor: Patrik Schumacher).

She received her Master of Arch. & Urbanism degree from Architectural Association (2004-2006, Project Distinction). She received her Bachelor of Architecture degree from Istanbul Technical University (2003, top 3rd).

Since 2006, she has been working for Zaha Hadid Architects in London.

She is the co-founder of YME, a design research collaborative of young architects.

EE RESUME

eerdine[at]elif-erdine[dot]com

Tag Cloud

AA attractor Beyond Media 2009 canopy competitions Costa minimal surface curlicue fractal GC Gumowski-Mira jewellery design lounge seating Mathematica News Parametric Parametric Design Parametric facade parametric wall tiling PhD pickover strange attractor point connection Publication research RhinoScript Ribs Rossler slip-case wine bottle Zaha Hadid Architects

GC Canopy Ver.01

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A canopy design created in Generative Components by the population of 3d parametric components.

A series of canopies that are created by just updating the definitive geometry will be uploaded soon..

GC Rib Structure

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A recent rib structure study developed in GC.

The depth of the ribs is controlled by a variable which is calculated in relation Dot.Product function. Dot Product: In mathematics, the dot product, also known as the scalar product, is an operation which takes two vectors over the real numbers R and returns a real-valued scalar quantity. It is the standard inner product of the Euclidean space.In Euclidean geometry, the dot product, length, and angle are related: For a vector a, aa is the square of its length, and, more generally, if b is another vector, a * b = |a| *|b| *cos(?) where|a| and |b| denote the length (magnitude) of a and b , and ? is the angle between them. Since |a|cos(?) is the scalar projection of a onto b, the dot product can be understood geometrically as the product of the length of this projection and the length of b.

(http://en.wikipedia.org/wiki/Dot_product )

The variable created in this example takes the Arccosine of the Dot Product for 2 vectors, which are the Z direction of the base coordinate system and the Z direction of the coordinate system created on the surface. Since the result will be an angle between 0 and 180, the Arccosine of the Dot Product is divided to 180, thus producing a variable between 0 and 1.

 

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Smart Geometry 2008

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I’ve attended the Smart Geometry 2008 Workshop and Conference, which was held on February 27th- March 5th, in Munich.

The workshop structure was comprised of 5 different categories, namely Environment, Fabrication, Form, Computation, and Architecture.  I was part of the Computation group, looking into ways of scripting and manipulating mathematically defined forms in GC.  My goal was to develop YME’s proposal for the AADRL.TEN Pavilion, basically defining the underlying geometry, the mobius-klein nonmanifold, in a parametric manner inside GC and then populating this geometry with components of varying depths and openings. In GC script, it is possible to describe any geometry with an explicit formula. Thus, by defining the x, y, z parameters of the surface and inserting variables for its sub-domains in GC script, it was possible to visualize any part of the surface by changing the sub-domain variables. Afterwards, four types of simple components with different depths and openings were assigned to the UV coordinates to populate the 4 sub-domains of the mobius-klein nonmanifold.  

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Mobius-Klein nonmanifold scripted in GC.

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Sub-domain of the surface visualized by changing variables.

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Sub-domain populated with one type of component.

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My next intention for the future is to map coordinates of differing densities on the surface, since UV coordinates are sometimes not enough to emphasize the topological transformations in surfaces. Mapping denser coordinates on areas of the surface with more curvature and less coordinates in areas with less curvature would both enhance the visual effect and also be more beneficial for manufacturing purposes.