SLA Dimensional Validation Prototype

Precision is critical in metal manufacturing, where even minor dimensional deviations can lead to assembly failures, increased costs, and production delays. In this project, Cad Deziners implemented an SLA (Stereolithography) 3D printing workflow to validate the dimensional accuracy and fit of a complex metal component before tooling and full-scale manufacturing.
By producing a highly accurate SLA prototype, the client was able to verify critical dimensions, evaluate component fitment, identify potential design issues, and implement design refinements early in the development cycle. This proactive validation process significantly reduced manufacturing risk, minimized costly design revisions, and accelerated the transition from prototype to production.
The project demonstrates how precision SLA prototyping serves as an effective engineering validation tool, enabling faster decision-making, improved product quality, and a more efficient product development process for complex metal components.

keyring Production

Cad Designers partnered with a client to manufacture 800 custom keyrings requiring high durability, fine detailing, and a premium painted finish. The project evolved from rapid prototyping into a comprehensive manufacturing optimisation process, where multiple production methods—including 3D printing, metal additive manufacturing, injection moulding, and wax moulding—were evaluated to identify the most efficient and scalable solution. After comparing performance, surface quality, lead time, and production costs, injection moulding was selected as the optimal manufacturing method. This project demonstrates Cad Designers’ expertise in guiding clients from concept validation to high-volume production through strategic engineering, process selection, and end-to-end manufacturing support.

Robot model

This case study presents the development of a high-precision 3D printed robot model engineered for public exhibition, demonstrating the effective transformation of a digital concept into a durable, display-ready physical asset. The project involved advanced CAD modeling, design optimization for structural integrity, additive manufacturing, and high-quality surface finishing to achieve both dimensional accuracy and visual appeal. Key engineering considerations included printability, component strength, assembly efficiency, and exhibition-grade aesthetics. The successful outcome highlights how integrated design and additive manufacturing workflows enable rapid realization of complex display models, supporting museums, government organizations, educational institutions, and marketing exhibitions with reliable, high-impact prototype and presentation solutions.

Keyring

This case study demonstrates the successful development and production of custom 3D-printed keyrings designed for a community-focused initiative requiring high levels of personalization, consistent quality, and scalable manufacturing. The project combined CAD-based design optimization with additive manufacturing to deliver durable, lightweight, and visually appealing products while maintaining rapid production timelines and cost efficiency. Careful consideration of material selection, print orientation, dimensional accuracy, and post-processing ensured reliable performance and a premium finish. The project highlights how additive manufacturing enables low-volume, highly customized production without tooling costs, making it an effective solution for promotional products, events, branding campaigns, educational institutions, and community engagement programs requiring fast turnaround and design flexibility.

Wi-Fi Unit

CADDeziners collaborated with an enterprise client to develop a highly detailed scaled 3D printed model of an exterior WiFi unit intended for stakeholder presentations and demonstration purposes.
The project involved transforming a large industrial product into a compact, presentation-ready display model while preserving:
Visual accuracy
Functional detailing
Branding elements
Assembly aesthetics
Despite limited reference data, CADDeziners successfully delivered a precision-engineered model that exceeded client expectations in both detailing and presentation quality.

Large-Scale 3D-Printed Coffee Table Prototype

This case study presents the development of a large-scale 3D printed coffee table prototype, demonstrating how additive manufacturing can accelerate the realization of complex furniture concepts while reducing tooling requirements and development lead times. The project involved optimizing the CAD model for large-format printing, segmenting the design for manufacturability, ensuring structural integrity, and achieving high-quality surface finishes through controlled post-processing and assembly. By leveraging Design for Additive Manufacturing (DfAM) principles, the prototype successfully validated form, fit, and functionality before production-scale investment. The project highlights the value of large-format 3D printing as a rapid prototyping solution for custom furniture, architectural products, and industrial design applications where design flexibility, faster iteration, and cost-effective validation are critical to product development.

Hot Fuel

This case study presents the end-to-end development of a miniature cube sculpture trophy, demonstrating the integration of advanced CAD modeling, precision additive manufacturing, and high-quality finishing techniques to achieve a visually striking and dimensionally accurate product. The project required careful optimization of complex geometric features, fine surface details, and structural integrity while maintaining production efficiency. Through an iterative engineering approach, the final solution successfully balanced aesthetics, manufacturability, and durability, resulting in a premium presentation trophy. The project highlights how digital design, rapid prototyping, and precision manufacturing workflows can accelerate product development while ensuring consistent quality for custom awards, corporate recognition products, and limited-production display pieces.

CNC Machining of PEEK Components

CAD Deziners partnered with a leading advanced technology company to manufacture high-precision components in PEEK, Titanium, and 316L Stainless Steel for a demanding engineering application.
During final quality verification, dimensional non-conformance was identified in a batch of machined PEEK components due to thermal distortion during CNC machining. Rather than proceeding with parts that did not fully meet specification, CAD Deziners initiated a comprehensive root cause analysis and process optimisation program.
Through a combination of revised machining strategies, advanced cooling techniques, material upgrades, and collaborative engineering consultation with the client, the project successfully achieved the required dimensional stability and flatness performance, reinforcing CAD Deziners’ commitment to quality, transparency, and continuous improvement.

FORGAN-NAS-3

CAD Deziners partnered with a client to manufacture a custom enclosure assembly under the Forgan-NAS-3 project. The engagement demonstrates our ability to provide practical engineering guidance, transparent manufacturing recommendations, and cost-effective production solutions tailored to client requirements.

By helping the client evaluate manufacturing technologies, surface finish expectations, and budget considerations, CAD Deziners delivered a solution that balanced quality, lead time, and cost while establishing the foundation for a long-term manufacturing partnership.

Custom 3D-Printed Robotics Components

CAD Deziners partnered with a client to manufacture a custom iPad mounting assembly and locking components for a mobile robotics application. By assessing the functional requirements of each component, our engineering team implemented an application-specific manufacturing strategy that balanced structural performance, production efficiency, and cost.

Using FDM 3D printing with PLA, the primary mounting bracket was produced with 50% infill for enhanced strength and durability, while the locking components were manufactured with 15% infill to reduce material usage and production time without compromising functionality.

The project was completed within the client’s tight delivery schedule, supported by proactive communication and transparent project management. The result was a high-quality, production-ready solution that met the mechanical demands of the robotic system while delivering a cost-effective and efficient manufacturing outcome.