Dr Fazal Ali
The archwire-bending brand identity of the Trinidad Carnival has penetrated markets in the Middle East. In Dubai, the world witnessed all aspects of Fête, J’Ouvert and Mas, and a “Callalloo” of costumes from top Carnival bands.
The Trinidad and Tobago masquerade tradition is already pursuing export-led growth and diversification, expanding its carnival brand identity into new cultural settings. This new market segment offers opportunities for new categories of North Coast chocolate flavours, geographic indicators like our steel-membrane pianos, and Minshallesque carnival costume designs.
The opportunity in the age of AI is to enhance export competitiveness by leveraging and protecting the rich indigenous knowledge of Mas aficionados such as Stephen Lee Heung, George Bailey, Ronnie and Caro, and Wayne Berkeley, as well as the magisterial creations of brands such as Tribe, Bliss, Harts, and Lost Tribe.
No territory in the West Indies has this competitive advantage in Soca music, archwire-bending costume designs, and steel orchestras. As the export of the Trinidad Carnival expands, the craft of archwire bending needs protection, preservation, and to enter the age of AI-enhanced design, rapid prototyping, and advanced robotic manufacturing.
As a backcloth to wire bending for Carnival design, I will set the stage with advances in orthodontics and robotics. New technology has been used in three-dimensional visual design and robotic archwire bending of orthodontic retainers with the development of 3D computer-aided design/computer-aided manufacturing (3D CAD/CAM).
Once, orthodontists manually bent archwires with pliers and other mechanical tools. The process of shaping orthodontic wire is challenging, time-consuming, laborious, and error-prone. Continuous efforts to enhance patient experience have led to the integration of robotics into various orthodontic procedures, offering unparalleled precision, consistency, and efficiency.
Today, robotic wire bending in orthodontics uses 3D digital imaging and automated robotic arms to customise the metal archwires that connect braces. This technology allows orthodontists to bend wires with sub-millimetre precision.
The orthodontist creates a 3D digital model of your teeth using an intraoral scanner rather than traditional putty impressions. Specialised computer software simulates your ideal bite and tracks the movement of each tooth from its current position to the final desired alignment.
The doctor’s customised treatment plan is sent to a wire-bending robot. The robot bends the archwire into a highly complex, custom shape tailored specifically to your anatomy. Robotic arms bend wires with micron-level accuracy. In China, industrialists have already integrated welding capabilities into their 3D wire-bending machines. The next step for the Trinidad Carnival may be to establish an Archwire Sculpting Factory to support the manufacture of archwire frames for bespoke costume designs from Las Vegas to Lulayyah.
By combining AI mood boards with masquerader interviews, Archwire Sculpture Studios can create futuristic archwire prototypes. AI-assemblages can use masquerader aesthetic preferences to produce hyper-specific visual concepts. Using mood boards and prompt engineering, designers can leverage LLMs to produce archwire frames aligned with each masquerader’s personal memories and performance needs.
The outputs will be hundreds of images and mood boards, exploring radical Carnival wireframe concepts that traditional sketches might have overlooked. Generative modelling can be used to interpret 2D AI images, mapping out complex patterns and materials to seamlessly translate flat concepts into functional 3D structural forms. Rapid Prototyping of the finalised digital concepts can then be fed to the archwire-bending robots.
Archwire bending can also become an accredited course of study that incorporates AI-assisted designs. AI CAD experts can help Mas band designers integrate AI into CAD software to improve the design process. Tuition in this type of integration will lead to more intelligent, automated design functions, such as generative design. This development of capability will enable designers to specify requirements and constraints and receive optimised design options generated by AI.
With certification from local TechVoc education providers with expertise in robotics, coding, carnival arts, mathematics, material science, and technology, a future workforce of AI-enabled designers certified in robotics and AI in CAD can build a whole new industry. This can lead to income-generating stackable Micro-credentials in AI and Carnival Arts.
These accredited credentials can offer widespread transferability and global recognition, creating fresh pathways and opportunities across the Caribbean’s festival industries. Such an intervention can be an intentional act of preservation and strategic industry development that translates community-based cultural knowledge and voluntarism into sustainable careers and economic agency.
AI in CAD also features automated error detection, predictive modelling, and enhanced simulation capabilities. This will force the archwire-bending capabilities and capacity of local Archwire Design Studios and Factories to push the limits of costume manufacturing to new levels of replicability and innovation in the architecture of Carnival fashion, and engineering workflows.
By investing in indigenous knowledge and talent, we can turn heritage into sustainable livelihoods. Artisans and cultural practitioners can finally have formal, accredited certification and professional accreditation using established CVQ pathways for participants.
Dr Fazal Ali completed his Master's in Philosophy at the University of the West Indies. He was a Commonwealth Scholar who attended the University of Cambridge, Hughes Hall; the Provost of the University of Trinidad and Tobago; the acting President of UTT; and the Chairman of the Teaching Service Commission. He is the President of NIHERST and an external services consultant with the IDB.
