Mohamad Kalhor — architecture, computational design and AI

  • Fabrication. Nov–Dec 2015. Project lead and de facto supervisor; algorithm design and parts preparation. Built, temporary, indoors. film 2:04. same people or publication: Stonize. led to: Stonize. same question: Tehran Cultural Garden. same people or publication: Bionic Mold Pavilion (no film yet)
  • Fabrication. July and Dec 2016. Workshop instructor / co-lead, with Mehdi Kiani. Built twice, temporary. no film yet. led to: Stone Wall. same people or publication: NO. 1 Pavilion. led to: NO. 1 Pavilion
  • Built work. March 2016 (owner; file dates are Aug–Oct 2017). Designer, fabricator and project manager, as an employee of Taraghijah Architects. Built, interior. film 2:54. same people or publication: Stone Wall
  • Fabrication. 12–13 July 2017. Design and fabrication. Partly built: the lower half. film 2:48. led to: Stonize. feeds: Press. same people or publication: Roll Ice Cream Store
  • Research. Defended 11 Feb 2017. Author; supervised by Dr. Ekhlasi. Thesis; one roof panel prototyped. film 3:00. shared method: Tehran Cultural Garden. same question: Tehran Cultural Garden
  • Architecture. 2018 (film credit; catalogue range 2016–18). Designer. Unbuilt, academic study. film 3:16. led to: Bionic Mold Pavilion (no film yet). same people or publication: Tehran Cultural Garden
  • Tools. 30 Aug – 3 Oct 2026. Designer builder. Software. film 3:30. feeds: Press
  • Tools. Sept 2026. Software, verified on fixtures. film 3:34. feeds: brain. feeds: Stone Wall
  • Architecture. Year not stated (file dates 2017–18). Group work: Mohamad Kalhor and Sina. Unbuilt, master's design studio. no film yet. shared method: Virtual Art Museum of Lima City. same people or publication: Bionic Tower. same question: NO. 1 Pavilion. same question: Virtual Art Museum of Lima City

Portfolio 2015–2026: drawings that compute
architecture · computational design · AI

Plans are each project's 3D model seen from above, where one was sent

Layers 9 · links 10
led to, feeds method people, question

ARC ArchitectureFAB FabricationBLT Built workRES ResearchTLS Tools

9 projects · 2015–2026

Drawings that compute

    Virtual Art Museum of Lima City · Bachelor thesis · IUST · 2017 · part 3 of 5

    A roof made of insect-eye cells

    Can a deep cell, shaped like the eye of a fly, be both the structure of a roof and a valve that lets daylight in only when it is wanted?

    Date
    Defended 11 Feb 2017
    Role
    Author; supervised by Dr. Ekhlasi
    Status
    Thesis; one roof panel prototyped

    Model: model maket detail.3dm (2017) · centre: the 12 modelled cells · around them: the same cell tiled, illustrative

    Reference · the compound eye

    One cell, one direction

    An insect’s compound eye is an array of small cells, each looking along its own axis. The panel borrows the cell, not the optics: a deep hexagonal tube that takes light mainly along its axis.

    Land 1997, Annual Review of Entomology 42 · eye drawn here as a schematic

    The cell · design model

    A deep hexagon in five layers

    Each cell is 0.30 m across its corners and 0.40 m deep: a frame of tubes and ball nodes, diagonal cables, three servo units, a funnel of 24 flat faces and a top plate.

    Model: layers 01–05, part counts read from the file · roles of the layers read from the model and the owner’s description, to be confirmed with the author

    Light · computed in section

    Depth narrows the direct light

    A sun ray gets through only if it enters the top and leaves through the aperture at the bottom. Past a limit angle the funnel wall stops it. Close the aperture and no direct ray passes.

    Computed from the model: θ = atan((w + a) / 2d), w 231 mm, d 0.40 m · opaque walls assumed · not measured · no daylight study is known

    Motion · schematic, 2026

    Three servos close the aperture

    The bottom of the funnel is a three-pointed opening. Each servo arm reaches one inner point. Pull the three points to the axis and the opening shuts; push them out and it opens to a triangle.

    Schematic motion, 2026 · mechanism read from the model, to be confirmed with the author: arms and pins meet the inner points · not a solved linkage · area computed from the moving points

    Control · design intent

    Each cell could answer its own light

    The museum shows virtual work, so daylight should arrive only where and when it is wanted. As design intent, each cell could open and close on its own. The built cell reacted to light through sensors, coded in Arduino (owner).

    Illustrative · one possible rule: close in direct sun, open in shade · the real sensor logic is not recorded · not a daylight simulation

    Depth · design intent · computed index

    Deeper cells could act as a space grid

    The owner’s idea: make the cells deep and the layer of panels becomes a space grid that can carry the roof. In an idealised two-chord section the bending stiffness grows with the square of the depth.

    Computed · I ≈ 2A(d/2)², chord area A fixed · chords assumed = top and bottom frame rings · 0.80 m is illustrative, twice the model · not a structural analysis

    Fabrication · from the model

    Laid out flat for cutting

    In the model the parts are laid out flat on sheets: 1,103 cut curves and 12 engraved curves, placed by a Grasshopper definition.

    Model: layers boresh::cut 1, cut 2, hack, border (Persian: boresh = cut, hack = engrave) · definition: 11-11-95 model maket sheets.gh · sheet material and machine to be confirmed with the author

    Prototype · owner’s account

    A cell was built and reacted to light

    A physical cell was built with servos and light sensors, programmed in Arduino. The owner recalls it opening and closing in response to light. It is simpler than the model: a hexagonal frame with hinged funnel panels.

    Photos: the built cell · owner: built during the thesis; the photo files carry camera dates of 5 Mar and 2 Jun 2018, still to be reconciled · scale not recorded · behaviour: owner’s account

    Roof · design intent

    Structure, shade and sensor in one

    Adaptive facades are an established field (Loonen et al. 2013); Attia 2017 evaluates one built example, the Al Bahr Towers. The Fly’s Eye panel asks one deep cell to be structure, shade and light valve at once. The combination is the idea.

    Loonen et al. 2013, Renewable and Sustainable Energy Reviews 25 · Attia 2017, QScience Connect · tiling and cloud are illustrative

    Limits

    An idea and a built cell

    No daylight, structural or thermal evaluation is known. Mohamad Kalhori · B.Arch thesis, Virtual Art Museum of Lima City · supervisor Dr. Ekhlasi · IUST 2017.

    Model, sheets and photos: the author’s archive · all diagrams drawn for this film · simulations labelled

    The record

    Date
    Defended 11 Feb 2017
    Role
    Author; supervised by Dr. Ekhlasi
    Status
    Thesis; one roof panel prototyped
    Made of
    Fly's Eye roof panel · part 3 of 5 · IUST

    Facts from project/bachelor-thesis @62c6dbf, RESEARCH.md:14, §9 row 2; animation/film_s3.html:442

    All projects

    9 projects, in time order. Open one to lift its sheet, or read it in the work index.

    Open the work index →