FIG. 01 — Simulation of the behaviour of a coiled SMA wire.

SAES ultra-high-vacuum instrumentation

FIG. 02 — SAES ultra-high-vacuum instrumentation.

Simulation of specialty metal alloy production under ultra-high-vacuum conditions Alternative view of specialty metal alloy production simulated under ultra-high vacuum

FIG. 03 — Simulation of specialty metal alloy production under ultra-high-vacuum conditions.

FIG. 04 — Simulation of selective sintering processes for getter alloys.

Controlled crystallization study of nano-coatings developed for high oxygen-barrier performance

FIG. 05 — Controlled crystallization of nano-coatings engineered for high oxygen-barrier performance.

Laser powder bed fusion process applied to metallic powders

FIG. 06 — Laser powder bed fusion of metallic powders.

Material study of controlled crystallization in oxygen-barrier nano-coatings

FIG. 07 — Controlled crystallization of nano-coatings engineered for high oxygen-barrier performance.

Coral-like computational structure generated through selective shortest-path connectivity

FIG. 08 — Coral-like structure generated through selective shortest-path connectivity.

Exploration of structurally impossible furniture geometries through computational design

FIG. 09 — Exploration of impossible furniture geometries through computational design.

Gold ribbon geometry generated through a cymatic sound-based design process Variation of a gold ribbon generated through cymatic sound patterns

FIG. 10 — Gold ribbons shaped by sound using a cymatic design approach.

Procedural generation of TPMS structures for sintered metal alloys using implicit mathematical fields in a Volume Wrangle

FIG. 11 — Procedural generation of TPMS structures for sintered metal alloys using implicit mathematical fields in a Volume Wrangle.

Simulation of ingot melting and alloying for high-temperature shape-memory alloy

FIG. 12 — Simulation of ingot melting and alloying processes for high-temperature shape memory alloys (HTSMAs).

Cabinet with a brass skeletal structure developed through a Voronoi-based system

FIG. 13 — Cabinet with a brass skeletal structure developed through a Voronoi-based system.

Electrical wave pattern dynamically modulated by sound input

FIG. 14 — Study of electrical wave patterns dynamically modulated by sound input.

Second study of an electrical wave pattern dynamically modulated by sound

FIG. 15 — Study of electrical wave patterns dynamically modulated by sound input.

Sound-responsive electrical wave geometry generated through computational experimentation

FIG. 16 — Study of electrical wave patterns dynamically modulated by sound input.

Electrical wave pattern generated from sound input, first variation Electrical wave pattern generated from sound input, second variation

FIG. 17 — Study of electrical wave patterns dynamically modulated by sound input.

Engineered porous metallic structure featuring a controlled interconnected internal geometry

FIG. 18 — Engineered porous metallic structure with controlled internal geometry.