Elevate Your Product Development with Precision Prototyping by FMS
Prototyping is a critical milestone in modern product development and mold manufacturing. While 3D printing continues to evolve, traditional rapid prototyping remains irreplaceable for verifying toolability, tolerances, and real-world manufacturability.
At FMS, we bridge the gap between design and production. We deliver cost-effective, high-precision prototyping services tailored for your new products and molds. Our commitment is simple: uncompromised quality, professional efficiency, and transparent collaboration.Our Core Capabilities:
• Design & Modeling: Conceptual models and fully detailed 3D component modeling.
• Advanced Rapid Prototyping: High-fidelity SLA, SLS (Selective Laser Sintering), and FDM 3D printing.
• Fit & Function Analysis: Engineering-grade prototypes to test form, fit, and operational performance before mass production.
Partner with FMS to accelerate your time-to-market without compromising your budget.
Transforming Vision into Reality: Advanced Prototype Manufacturing
Prototype manufacturing is the critical bridge between digital industrial design and market success. By transforming complex 3D CAD models into functional, tangible products, we enable real-world testing, immediate assessment, and flawless design validation long before mass production begins.
Utilizing a seamlessly integrated ecosystem—combining cutting-edge CNC machining, laser technology, automated CAD/CAM workflows, and advanced materials—we deliver a comprehensive from-part-to-prototype solution. Today, as we harness the full potential of next-generation 3D printing and additive manufacturing, we aren’t just adapting to industrial evolution; we are actively accelerating your product R&D and redefining what’s possible in making.
Industrial-Grade 3D Printing & Additive Manufacturing Services
Accelerate your product development and scale production with our end-to-end 3D printing services. We partner with designers and engineers worldwide to deliver high-performance prototypes, custom tooling, manufacturing aids, and flight-ready or end-use parts.
Leveraging state-of-the-art additive manufacturing technologies and deep material expertise, our team meets the most stringent industry standards—delivering exceptional precision, cost-efficiency, and fast turnaround times. No matter the complexity, we provide the technical expertise to bring your designs to life.
How It Works:
1. Submit Your Design: Upload your 3D CAD models via email for a secure project review.
2. Select Materials: Choose from a wide range of high-performance polymers, resins, or metals.
3. Precision Manufacturing: Our experts optimize and print your parts using advanced additive systems.
4. Quality Inspection & Delivery: Receive production-grade parts, thoroughly inspected and shipped directly to your facility.
3D Printing Service Technologies:
1) SLA
Stereolithography (also known as SL or SLA) builds parts layer-by-layer using a UV laser to solidify liquid photopolymer resins. It is commonly used to produce concept models, master patterns, large prototypes and investment casting patterns.
Advantages
SLA is a good general-purpose additive process for a wide range of applications. Models and prototypes are rigid, strong and durable
2) Multi Jet Fusion (MJF)
Multi Jet Fusion is a durable technology which produces medium-quality surface finish, which is ideal for high-complexity with medium accuracy and can be used for short production runs.
Advantages
MJF is ideal for enclosures, electronics housings, ducts, lattice structures, and functional assemblies. Suitable for applications that require durability such as snap fits.
3) PolyJet
The PolyJet rapid prototyping process uses high resolution ink-jet technology combined with UV curable materials to quickly and economically produce highly detailed and accurate physical prototypes.
Advantages
High accuracy, superior surface finish, and wide selection of rigid and soft (rubber-like) materials to choose from. Build multiple materials and colours in a single part.
4) FDM
Fused Deposition Modeling (FDM) creates parts layer-by-layer with engineering-grade thermoplastics. Ideal for functional parts, including prototypes, low-volume production, manufacturing aids, jigs and fixtures.
Advantages
The FDM process uses the same types of raw materials used in the injection molding process. This technology includes use of support material to create create complex parts and assemblies
5) DMLS / Metal
Direct Metal Laser Sintering (DMLS) fuses powdered metal and alloy materials to produce metal parts. DMLS produces fully realized metal parts, including tools and end-use parts for a variety of industries.
Advantages
Metal 3D printing, with its advanced metals offering, is best utilized in highly complex and involved design
6) LS / SLS
Laser Sintering (LS) (also known as Selective Laser Sintering or SLS) uses a CO2 laser to heat and fuse durable
thermoplastic powder to build versatile parts with high elongation at break.
Advantages
LS production parts and prototypes provide lightweight, heat and chemical resistant solutions. SLS constructs 3D-printed parts from nylon (polyamide), which is strong, tough and durable
Material selection for 3D printing:
3D printed materials are very rich, including transparent, rubbery and biocompatible photopolymers, as well as tough, high performance thermoplastics and more. From fast, inexpensive concept modeling to detailed, super-realistic functional prototyping, through certification testing to agile, low-risk production, our team will help your designers and engineers solve material choice questions and make you design is successful at every stage. the following guides will help you select the perfect material based on a few important factors, like type, minimum thickness, texture and the all-important cost:
NYLON: (Polyamide)
Also called White, strong & flexible / Durable plastic / White plastic
Strong and flexible plastic, 1mm minimum wall thickness, Naturally white, but you can get it colored, About 10 layers per 1mm, Made from powder, Alumide = Polyamide + Aluminum, Interlocking, moving parts possible (chain)
ABS: (Home printers)
Strong plastic like legos are, Made from spaghetti like filament, Many color options, About 3 layers per 1mm, 1mm minimum wall thickness
RESIN: (Multiple options)
Also called White-, Black-, Transparent detail / White detail resin / High detail-, Transparent-, Paintable Resin
Rigid and a bit delicate, Liquid Photopolymer cured with UV light, White, black & transparent most typical colors, About 10 layers per 1mm, 1mm minimum wall thickness
STAINLESS STEEL:
Very strong material
Made with multiple steps or from powder directly, Coloring options like gold and bronze plating, About 6 layers per 1mm
3mm minimum wall thickness
GOLD & SILVER:
Strong materials
Made from wax and then casted, About 10 layers per 1mm, 0.5mm minimum wall thickness
TITANIUM:
Strongest material
Direct metal laser sintering, About 30 layers per 1mm, 0.2mm minimum wall thickness
CERAMIC:
Rigid & delicate
First ceramic is printed then surface is glazed, Ceramic white, glaze typically white, About 6 layers per 1mm, 3mm minimum wall thickness
GYPSUM:
Also called Sandstone / Rainbow ceramics / Multicolor
Rigid & delicateMade from powder, Naturally white, but you can get it with colors, About 10 layers per 1mm, 2mm minimum wall thickness
Injection molding is a common manufacturing process for producing plastic parts in high volume. It works by heating plastic resin to a molten state, after which the liquid plastic is injected under high pressure into a mold cavity. Inside the mold, the plastic cools and solidifies into the final part shape.
While designed for mass production, injection molding is also ideal for creating prototype parts during product development. This is due to several key advantages:
Speed and Efficiency: Injection molds can be fabricated within weeks and can rapidly produce dozens or hundreds of sample parts. This allows for prototypes to be quickly iterated.
Accuracy: The molds are CNC machined to precise tolerances, which are necessary for accurately testing product fit, form, and function.
Complexity: Intricate part geometries with optimized injection flow paths can be created in injection molds, allowing replication of nearly all product features.
Repeatability: Consistent plastic melt conditions and part cooling inside the mold enable each prototype iteration to achieve high repeatability.
Surface Finish: Prototype parts can achieve excellent surface finishes to enable the evaluation of aesthetic qualities.
Low and High Volume Capability: The molding process enables flexibility to produce anything from a few prototype parts up to thousands in short order.
By offering rapid fabrication of high-quality and repeatable prototypes, injection molding has cemented itself as the foremost solution for enabling physical product testing and design improvements during development. Now, let’s dive into the process of mold fabrication.
Designing a product is a multi-phase process that allows an individual or a team to develop an idea into a tangible product or service. Prototyping is an important part of this process that occurs in the mid- to late-development phases. It is a pivotal point in bringing a product or service to life.
Practically every industry utilizes prototyping, and designers may use different types of prototyping as a product evolves. A prototype allows you to see what works and what doesn’t so you can detect any potential issues before a new product goes to market.
Prototyping helps businesses save time and money. If you’re unfamiliar with the process, it’s important to learn more about the goals of prototyping and the different forms of prototypes.
What is prototyping?
Prototyping is the process used by design teams to bring concepts to life. It is the act of crafting a simple, experimental model of any type of product. By using multiple forms of prototyping, design teams can gather essential feedback throughout the development process to help improve the end product.
While all types of businesses can benefit from prototyping, the process is different for physical and virtual businesses. Prototyping a physical product may evolve from 3D drawings to DIY models before contracting a functional 3D model. Conversely, prototyping a virtual product, like software or an app, is more likely to begin with functional sketches and evolve to partially or fully functional demo products.
In both cases, prototyping can be accomplished with the assistance of an external company. Physical businesses can invest in a working prototype using 3D printing or manufacturing. Virtual businesses often use prototyping tools that allow the developer to create screens, navigational elements, and interactions to provide a solid representation of how a virtual product will behave.
What is the difference between sketches and prototypes?
Sketches are some of the earliest representations of any product, but they aren’t really prototypes. A sketch is purely visual. It’s designed to illustrate a concept more effectively than verbal descriptions.
In most cases, a sketch is fast, cheap, and disposable. A prototype (even when presented on paper) represents the functionality of the end product and is intended to gather user feedback.
What are the goals of prototyping?
Creating a prototype is the process of bringing a product idea into the physical world. The goal is to prove that what was designed is possible. By creating a functional prototype, you can achieve organizational goals that range from improving your product to gaining support from stakeholders, and everything in between.
Reasons for prototyping
Businesses create prototypes to develop a product in ways a simple design can’t. Design teams prototype for a variety of reasons depending on the design phase of the product and the goals of the company.
These are some of the most common reasons for prototyping.
Consider improvements throughout development: By developing early prototypes, design teams can gather information that will allow them to make changes to the original concept instead of committing to a potentially flawed version.
Establish proof of concept: In theory, a product idea will work perfectly without physical or digital problems. In reality, this is rarely the case. Prototyping provides proof that under the right conditions, a product will work as intended.
Identify user pain points: To consumers, a product is a solution to a problem. When a design team works under the same concept, they’re more likely to meet the needs of the product’s ideal users. By creating a prototype, teams have a tool to get insights into the user’s world, which can present added uses or potential accessibility problems.
Allow for user testing: Your users are the ultimate decision-makers when it comes to your product success. Developing a useful prototype enables you to present it to users and gather feedback.
Minimize design errors: Functionality and optimal usability aren’t necessarily the same thing. Changing incremental measurements or minor UI effects in a product when it nears completion is an expensive process that can cause delays. Prototypes help design teams eliminate flaws before product development and launch.
Engage stakeholders and users: A prototype provides a tangible product that investors can see and use. This type of interaction is more engaging than an idea that isn’t fully formed.
Improve time-to-market: Creating a prototype takes time, but repairing flaws and improving product usability take longer. Prototyping improves time to market by providing information that streamlines the development process.
Prototyping plays a crucial role in all stages of the product development cycle, by allowing designers and engineers to evaluate ideas and solutions, confidently refine solutions, and identify cost/performance/manufacturing issues earlier in the development cycle.
By equipping evaluations of all forms with tangible and/or functional representations of concepts, prototypes build stakeholder confidence through the visualization of and functional interaction with the product (or sub-elements of it). Nothing facilitates communication and collaboration between developers, marketers and customers better than a working execution. Prototypes quickly deliver meaningful feedback from users that images cannot, ensuring that the final outcome meets real user needs and expectations.
Before getting to the actual step-by-step making action, here’s what you will need throughout the process.
Hire an intellectual property lawyer
If you are serious about creating a killer product, you will need to protect it and make sure you’re the sole manufacturer. That’s why you’ll need a patent, and an intellectual property lawyer to make sure you get it.
Sign non-disclosure agreements with your collaborators
Anyone involved in the design, sketching, or prototyping processes should be legally responsible for not leaking any sensitive information. This information can cause you financial damages, and you have to make sure you will be fairly compensated.
Find the most cost-effective way of manufacturing a prototype
Depending on how complicated your invention is, there are a couple of ways on how to get a prototype made. You can create it yourself, collaborate with prototyping companies, or outsource the prototype manufacturing process to speed up the process and cut initial costs. We will discuss the costs of prototyping further on in this article.
Step-by-step guide on how to make a prototype
Once you’ve taken the necessary steps to protect your invention, you can start creating your 3-dimensional prototype. From market research to manufacturing, here are the X steps we recommend you follow.
Dissect the market for inspiration and flaws
First things first, you’ll need to see what’s out there in your market: who are your competitors, what are the advantages of their products, how can you make a better version, etc. Look for what your competitors do. If you like something, incorporate it into your version. If you find something you hate, be sure to stay away from it. A great way of learning from your competitors is buying their product and picking it apart to see how they make it – what solutions do they use?Make sure to get feedback from actual customers. Conduct surveys, analyze your results and in the end, create what your users dream about.
Create an initial sketch
The physical attribute of your product is one of the main selling points it will have. Be sure to create the perfect balance between aesthetically pleasing and functional. Always remember to gather feedback, listen to multiple perspectives, and modify accordingly. Here’s where putting your ideas down on paper will come in handy. It doesn’t take much effort and gives a good idea of what you want to create.
Make a digital sketch
Once you have your initial prototype on paper, it’s time to turn it into a virtual sketch. There are many tools you can use to make 2D and 3D renders of your hardware product. One of the most famous ones is AutoCAD. Further down the road, you can use other tools to create an even better model.If you are not skilled in such programs or don’t bode well with technology, you can always get the help of a graphic designer. Another option is to work with prototype manufacturing companies, and you can skip learning about the specifics of how to make a prototype.
Build it!
Once you figure out what you want, you can choose from many ways of how to get a prototype made. Here are a couple of prototype manufacturing options:- Build it yourself. If you are skilled, and building it yourself is not impossible, you can do it yourself. A 3D printer just might do the trick. You’ll get to learn all about the manufacturing process, and maybe even come up with better solutions. Plus, you’ll get to save your funds for the future.- Hire an engineer or a professional prototype designer. The pros know what they’re doing. They do it for a living and have more efficient ways of bring in your idea to life. It’s a little more costly than building it yourself, but you will probably get some amazing improvement suggestions along the way.- Advertise at an industrial design university. Students are always looking for projects to feature in their portfolio and some extra money in their student accounts, and they will require a smaller budget than a pro. This option is the most efficient one when you’re building an initial prototype. Future models may be built with more expensive materials, so it’s better to catch your flaws earlier on.
Rebuild it, and find the perfect one
Your initial prototype is obviously not going to be the final one. That’s why it’s a prototype! Don’t expect to build it and have it work perfectly (unless you’re that lucky). Be prepared to go through trial and error. Here are some questions you can ask yourself when testing a prototype:
What are 3 things you like about it?
What are 3 things you want to change?
Would you use it yourself?
Is this your best choice in the market?
Would you recommend it to friends and family?
These questions will help you organize and manage your solutions. At the end, you’ll have a product that you’re proud of and that your customers will love.
You’re almost convinced to learn how to make a prototype but need a little more? Prototyping is one of the main steps in creating a product, and it’s not a coincidence. There’s a reason that it has become a standard and even a mandatory process. It has proved itself to be effective and efficient. If you’re still debating whether to make one or not, here are some advantages to help you decide.
– It allows you to test and improve your invention
Having your prototype example in your hand will help you really see its flaws and find the best solutions to them. Then, you will be able to put it to use and see if it lives up to your vision. Little by little, you’ll perfect it and reach your final version.
– It motivates you to keep going
After thorough planning and designing, having your idea in your hands will remind you why you started it all in the first place. Reaching that milestone will excite you and motivate you to aspire for your final version and starting production.
– You’ll have something to show
Whether you’re looking for investment or getting a patent, having a prototype will give you a big boost and credibility. You’ll be able to showcase your product and prove its usefulness. In addition, it’ll be easier to sell your idea when you have something to show.
– It helps you understand the user experience
Getting feedback on a real product is easier than on an intangible idea. You’ll be able to learn about what your users really think about the physical features, as well as its usability and possible improvements.
The goal of a prototype is to ensure your design works in the hands of the user, Getting feedback on a prototype is one of the easiest and cheapest ways to get feedback, before you spend a lot of money building something that might not meet user needs. Then you’d have to spend even more to course-correct.
Creating a prototype allows design teams to hone a product concept before it’s built and launched—saving time, money, and headaches for everyone involved. Prototyping helps designers at every step of the design process, in three specific ways.
1. Validate early concepts
In a design sprint, you can bring your concept to life with a rapid prototype. This helps stakeholders align on what’s being designed, giving everyone a realistic depiction of what the experience will be.
2. Facilitate communication
Whether you’re working with clients or talking with your CEO about goals and needs, you’ve probably noticed that designers and non-designers often speak different languages. so that everyone’s on the same page—and nothing is lost in translation.
3. Refine features and flows
When you’ve designed something from the ground up, it becomes hard to see it with a fresh eye. No matter how much research you’ve incorporated into your initial design, rote data can’t replace user testing with a prototype. This will expose UX challenges that weren’t obvious during planning, and enable quick and easy changes to UI.
Prototyping offers significant cost savings—it enables the early detection of errors, allowing designers to rectify them in an efficient and cost-effective manner. Modifying a prototype is far less costly than reworking a fully developed product, as changes become increasingly expensive as the project progresses.
What’s more, the iterative nature of prototyping accelerates innovation. Designers can rapidly experiment and explore multiple ideas and quickly test and refine them based on user feedback. This iterative process fosters creativity and leads to more innovative and effective solutions.
Prototyping has many benefits and it’s recommended that you take advantage of it whenever you approach revisions or additions to your design. Here are a few of the benefits.
Prototyping clearly presents design ideas and can bring to light strong and weak design elements.
Prototyping highlights design elements that may have been accidentally omitted in the wireframing process.
Prototypes can be easily shared with your team and stakeholders, and they provide everyone the opportunity to review, experiment with, and provide feedback on the design.
Prototyping builds confidence in the success of the design. The more detail stakeholders can see and approve throughout the design process, the smoother the path to the end product will be.
Prototyping can save time and money by identifying errors or oversights early in the design process before the website or product heads into development. The later revisions take place, the more time and effort required.
Types of prototyping
There are two common types of prototyping: Low-fidelity prototyping and high-fidelity prototyping (fidelity refers to the level of detail included).
Low-Fidelity Prototyping
Low-fidelity prototypes are simple, quick, and they allow for changes and updates to be easily made. Typically done using pen and paper or with a basic online design tool, they include the bare minimum of functionality and design and allow stakeholders to see the general idea and identify specific likes or dislikes. The drawback to low-fidelity prototyping is that it is far from the actual product, and it can be difficult for some stakeholders to visualize future functionality.
High-Fidelity Prototyping
High-fidelity prototypes are far more detailed and are typically done digitally with an online design tool. These prototypes are very close to the actual finished product and include a high degree of design aesthetics and functionality. Because of the added detail, high-fidelity prototypes require more time and effort to create, and it can be more challenging to make revisions to them.
Prototyping is the process of designing a mock-up of a product or process ahead of creating a final design. Prototyping can include various stages or iterations, allowing designers, product owners, and other stakeholders to visualise how a product will look and feel, as well as how users will interact with it.
Creating prototypes at an early stage can prevent time and money being wasted on unsatisfactory designs. Prototypes can be physical, such as those made with paper or other inexpensive materials, or digital and range in the level of detail from simple wireframe designs through to more complex, interactive prototypes.