Our Services

3D modelling

3D modeling is a process within computer graphics where virtual objects are constructed in a three-dimensional digital space. It involves using specialized software tools to define the geometry, texture, color, and other attributes of objects to create a realistic representation.

There are various techniques for 3D modeling:

  1. Polygonal Modeling: Objects are created by connecting points (vertices) with lines (edges) to form polygons (usually triangles or quads). These polygons collectively define the shape of the object. Artists manipulate vertices and edges to sculpt the desired form.

  2. Parametric Modeling: Used in engineering and architecture, this approach defines objects using mathematical parameters, enabling easy adjustments and modifications. Changes to one parameter can automatically update related aspects of the model.

  3. Spline/Bezier Modeling: Curves and splines are used to define shapes, which are then extruded or lofted to create solid objects. This method is often used for smooth, organic shapes.

  4. Digital Sculpting: Mimicking traditional sculpting, artists use software tools to virtually sculpt models with a high level of detail. This method is often used for character creation and complex organic shapes.

  5. Procedural Modeling: Algorithms and rules are used to generate models automatically. This is particularly useful for creating complex patterns or environments.

3D modeling serves various purposes:

  1. Visualization: Models help visualize ideas, designs, and concepts before they are physically created. This is valuable in architecture, product design, and filmmaking.

  2. Simulation and Analysis: Models are used for simulations to predict how objects or systems will behave in different scenarios. This is important in engineering and scientific research.

  3. Animation: In video games, films, and animations, 3D models are manipulated and posed over time to create motion and tell stories.

  4. Prototyping: Before manufacturing, 3D models are often used to create prototypes to test and refine designs.

  5. Virtual Reality (VR) and Augmented Reality (AR): 3D models are essential for creating immersive experiences where users interact with digital objects in real or virtual environments.

3D modeling finds applications in various fields, including architecture, product design, entertainment (animation, gaming, and movies), medical visualization, scientific research, virtual training, and more. The process requires a combination of artistic skill, technical knowledge, and software proficiency to effectively create detailed and accurate digital representations of objects and spaces.

3D Printing

Several industries can benefit significantly from 3D printing:

  1. Manufacturing and Prototyping: 3D printing enables rapid prototyping, reducing design-to-production time and costs. Manufacturers can create prototypes and test designs before committing to large-scale production.

  2. Automotive: Car manufacturers use 3D printing for prototyping, creating complex parts, and even producing limited production runs of specialty vehicles or components.

  3. Healthcare: Medical professionals use 3D printing to create customized implants, prosthetics, dental devices, and anatomical models for surgical planning and education.

  4. Dentistry: Dental labs can produce crowns, bridges, and orthodontic devices with high precision using 3D printing, reducing manual labor and enhancing accuracy.

  5. Jewelry and Fashion: Designers use 3D printing to create intricate and unique jewelry pieces and accessories.

  6. Architecture and Construction: 3D printing can produce intricate and customized architectural models, as well as actual building components like brackets and structural elements.

  7. Consumer Goods: 3D printing allows for on-demand manufacturing of personalized consumer products, from fashion items to home decor.

  8. Education and Research: Educational institutions use 3D printing for teaching purposes, allowing students to create physical models of concepts and ideas.

  9. Entertainment and Arts: 3D printing is used to create props, costumes, sculptures, and even special effects in movies and theater productions.

  10. Food Industry: 3D prints can be used to create edible food items, such as candies and pastries, with intricate designs and shapes.

  11. Electronics: 3D printing can be used to create casings, prototypes, and even functional components for electronic devices.

  12. Energy Sector: The energy industry uses 3D printing to create custom parts for equipment maintenance, optimizing performance and reducing downtime.

  13. Environmental Conservation: 3D printing is explored for sustainable solutions, such as recycling plastic waste to create new objects.

The flexibility, customization, and speed of 3D printing make it a valuable tool across a wide range of industries, transforming the way products are designed, manufactured, and distributed.

Our Materials

  1. PLA (Polylactic Acid): Easy to print, biodegradable, and commonly used for prototyping and hobbyist projects.

  2. ABS (Acrylonitrile Butadiene Styrene): Known for its strength and durability, often used for functional parts.

  3. PETG (Polyethylene Terephthalate Glycol): Combines the ease of printing with the durability of ABS.

  4. TPE and TPU: Flexible materials with rubber-like properties, suitable for making soft and flexible objects

  5. Polycarbonate: Polycarbonate (PC) is a type of plastic known for its extraordinary strength, durability, and transparency. Actually, it is the same material used in bulletproof glass, CDs, and even astronaut helmets.

3D Scanning and Photogrammetry

3D scanning and photogrammetry are techniques used to capture the three-dimensional shape of objects or environments by projecting a pattern of light onto the subject and analyzing how the light pattern is deformed due to the object's surface geometry. This method relies on the principles of triangulation to calculate the distances between the camera, projector, and the object's surface points, thereby generating a detailed 3D representation of the subject.

We also use a technique called Photogrammetry to capture 3D models in full colour and texture.

  1. Reverse Engineering and Prototyping: 3D scanning and Photogrammetry can be used to capture existing physical objects or prototypes and convert them into digital 3D models. These models can then be modified, refined, and 3D printed, allowing for efficient reverse engineering and rapid prototyping.

  2. Customization and Replication: By photographing objects with unique shapes or complex geometries, photogrammetry can generate 3D models that can be customized or replicated through 3D printing. This is particularly useful in fields like design, art, and product manufacturing.

  3. Archiving and Preservation: Photogrammetry and 3D scanning is employed to digitally preserve historical artifacts, sculptures, and cultural heritage sites. The resulting 3D models can be archived and, if necessary, reproduced using 3D printing for display, research, and educational purposes.

  4. Entertainment and Media: In industries like movies, video games, and virtual reality, photogrammetry and 3D scanning are used to create realistic 3D assets, such as props, characters, and environments, which can then be 3D printed to bring virtual creations into the physical world.

  5. Art and Sculpture: Artists and sculptors can use photogrammetry to digitize their physical creations and reproduce them using 3D printing. This allows for experimentation with different sizes, materials, and finishes.

  6. Custom-Fit Products: Photogrammetry and 3D scanning enables the creation of personalized and custom-fit products by capturing individual body measurements and translating them into 3D-printable models. This is applied in industries like fashion, orthotics, and prosthetics.

  7. Engineering and Industrial Design: Photogrammetry and 3D scanning aids in capturing real-world objects for product design, allowing engineers to incorporate accurate dimensions and details into their 3D models before 3D printing prototypes.

The integration of photogrammetry and 3D scanning and 3D printing enhances the capabilities of both technologies. Photogrammetry and 3D scanning provides a non-intrusive way to capture detailed 3D data, and 3D printing brings these digital models to life as physical objects. This synergy is particularly valuable when it comes to replicating complex or unique objects, customizing designs, and bridging the gap between the digital and physical realms.

Laser Cutting and Engraving

Laser Cutting and Engraving: Our gantry diode laser can be used to cut and engrave materials like wood, acrylic, fabric, leather, metals and more. The gantry system's movement control ensures accurate positioning of the laser for intricate designs. Our lasers can accommodate raw materials up to 16 inches by 16 inches.

  1. Industrial Manufacturing: Gantry diode lasers are used in industries such as automotive, electronics, and textiles for precision tasks like circuit board production, component marking, and material processing.

  2. Prototyping: Rapid prototyping and small-scale production can benefit from the versatility and precision of gantry diode lasers.

  3. Personalization: Engraving and marking of personalized items, such as gifts and promotional products, can be easily accomplished with a gantry diode laser. Laser engraving on promotional items like pens, keychains, and trophies. Laser cutting of intricate designs for indoor and outdoor signs.

  4. Artistic Creations: Engraving and cutting for creating detailed art pieces on various materials.

  5. Apparel: Laser cutting intricate patterns and designs on fabric and leather.

Rapid Prototyping

Rapid prototyping refers to a set of techniques used to quickly create physical models or prototypes of a product using computer-aided design (CAD) data. The primary goal of rapid prototyping is to accelerate the product development process by allowing designers, engineers, and manufacturers to visualize and test their ideas and concepts in the form of tangible 3D models. These models can provide insights into the design's feasibility, functionality, and aesthetics before committing to full-scale production.

Here's an overview of the rapid prototyping process:

  1. Design: The process begins with creating a digital 3D model of the product using CAD software. This design serves as the blueprint for the prototype.

  2. Data Preparation: The CAD model is then converted into a format that can be interpreted by the rapid prototyping machine, typically using formats like STL (stereolithography) or other compatible formats.

  3. Layer-by-Layer Building: Rapid prototyping machines, also called 3D printers, build the physical prototype layer by layer. These machines use various techniques and materials, depending on the specific technology being employed.

  4. Post-Processing: Once the prototype is built, it may undergo additional processes to improve its appearance, surface finish, or functionality. This could include smoothing, painting, assembling components, or testing various features.

  5. Testing and Validation: The prototype is tested and evaluated for various aspects, such as form, fit, function, and ergonomics. Designers and engineers can identify potential issues and make necessary modifications before moving to full-scale production.

Benefits of rapid prototyping include:

  • Time Efficiency: Rapid prototyping significantly reduces the time required to create physical prototypes compared to traditional manufacturing methods.

  • Cost Efficiency: Creating prototypes using rapid prototyping can be more cost-effective, especially for small production runs, as it avoids the need for expensive molds or tooling.

  • Iterative Design: Designers can quickly create multiple iterations of a design to explore different concepts and refine their ideas.

  • Early Detection of Issues: Rapid prototyping allows for the identification of design flaws and functionality issues early in the development process, reducing the likelihood of costly modifications later.

  • Customization: Prototypes can be easily customized and tailored to specific requirements without significant adjustments to the manufacturing process.

Rapid prototyping is widely used in industries such as product design, automotive, aerospace, consumer electronics, medical devices, and more, where innovation, quick development cycles, and accurate testing are critical.