Designing for Manufacture: Inside the Soft Goods Tech Pack

Designing for Manufacture: Inside the Soft Goods Tech Pack

From Concept to Creation

Every great product begins with a spark of creativity—a sketch, a mood board, a prototype. But in order for that idea to become a physical object, it needs more than inspiration. It needs precision. Technical design is the step that translates vision into manufacturable reality, turning abstract concepts into clear instructions that factories can execute.

At the heart of this process is the technical design pack, or “tech pack.” It is more than just a set of drawings. A tech pack is a comprehensive roadmap and outlines exactly how a product is built, down to the smallest stitch, seam, or material choice. Without it, even the most innovative wearable or softgoods design are at risk being misinterpreted or poorly executed in production.

At Interwoven Design, we view technical design as a creative act in itself. It is a discipline that ensures ideas retain their integrity as they move from the studio to the factory floor. In this article, we outline what a tech pack includes, why it matters, and how we use it to bridge the gap between concept and creation.

What is a Technical Design Pack?

A technical design pack (tech pack) is the universal language between designers and manufacturers. It ensures that everyone—from patternmakers to production partners—shares the same understanding of how a product is meant to look, feel, and function. Think of it as the blueprint for softgoods and wearable technology. A typical tech pack includes:

  • Technical Drawings & Callouts
    Precise line drawings with notes on construction details, stitching, seams, hardware, and placement.
  • Bill of Materials (BOM)
    A complete breakdown of all materials and components. It includes fabrics, foams, fasteners, sensors—required to build the product.
  • Measurements & Grading
    Dimensions, tolerances, and size variations to ensure consistent fit across different body types or product sizes.
  • Assembly Instructions
    Step-by-step construction methods that guide how pieces come together, whether sewn, bonded, or mechanically fastened.
  • Testing & Performance Standards
    Requirements for durability, washability, strength, or medical-grade compliance, depending on the product category.
  • Labeling & Branding
    Placement of logos, care instructions, or certifications that connect the product to its brand identity and compliance needs.
Perci Emergency Preparedness Vest Branding

At its core, the tech pack is about clarity and accountability. It creates a shared framework where manufacturers know exactly what to deliver—and designers can trust the product will match their intent.

Why Technical Design Matters

Without a clear technical foundation, even the most brilliant creative concept risks breaking down in production. Technical design ensures that wearable products are not only beautiful and functional but also manufacturable, repeatable, and safe for users.

For softgoods and wearable technology, this precision becomes even more critical:

  • Integration of Textiles and Hardware
    A garment that incorporates sensors or mechanical components must balance flexibility, comfort, and durability. Tech packs detail how fabrics stretch, where reinforcements are placed, and how electronics are housed without compromising user comfort.
  • Consistency at Scale
    A prototype may be hand-built with care, but manufacturers need exact instructions to replicate that quality across hundreds or thousands of units. Tech packs standardize stitching, finishes, and tolerances so every piece delivers the same performance.
  • Risk Reduction
    By spelling out materials, testing requirements, and construction methods, technical design minimizes costly production errors and prevents miscommunication with suppliers.
  • User-Centered Reliability
    In wearables, failure isn’t just inconvenient—it can mean loss of trust. Technical documentation ensures durability and reliability in real-world contexts, whether that’s a medical device worn 24/7 or a back-assist exosuit in a warehouse.

In short, technical design translates creativity into reality. It bridges the gap between the designer’s vision and the user’s everyday experience, ensuring that innovation holds up in practice.

Inside an Interwoven Design Tech Pack

Every product we design—whether it’s a medical brace or adaptive lingerie—requires a set of technical design assets that guide manufacturers from concept to production.

These documents are roadmaps that ensure the integrity of the design across fit, function, and user experience. This matters even more in the case studies below, where we integrate hard goods and soft goods within the same wearable. Alongside the tech pack, we create a high-fidelity mockup that serves as a companion to the technical specs, bringing them into three dimensions and demonstrating complex construction at scale.

Case Study 1: Breg CrossRunner™ Soft Knee Brace

For the Breg CrossRunner™ Soft Knee Brace, precision was non-negotiable. The brace needed to fit a wide range of leg shapes while maintaining consistent hinge placement—essential for safe, effective joint support.

Interwoven Design developed custom leg forms to represent each size, then engineered a size grading system that scaled patterns evenly without shifting key hinge locations. We created multi-layered technical drawings to capture every detail of the brace’s flaps, straps, and fabric panels. By translating these patterns into CAD and supporting the manufacturing team through sample reviews, we ensured the final product matched the vision: a premium brace that’s both supportive and comfortable.

Case Study 2: Even Adaptive Lingerie

For Even Adaptive lingerie, the tech pack became the bridge between inclusive innovation and manufacturable detail. Alongside garment design, we developed a magnetized clasp system that users could operate with one hand.

Our industrial design and garment design teams worked in parallel, using 3D-printed prototypes with embedded magnets to test usability, strength, and comfort. We documented each iteration in technical drawings and specifications so manufacturers clearly understood how to integrate the clasp into the fabric without compromising softness or fit. The result was a low-profile, reliable closure that delivered on both aesthetics and accessibility. 

From Documentation to Collaboration

At Interwoven Design, we see tech packs not only as instructions for manufacturers, but as living tools. These align every stakeholder in the process, from clients and engineers to production partners. A strong pack captures the full intent of a design: the dimensions, construction methods, materials, finishes, and functional details that define how a product should look, feel, and perform. By consolidating all of this into a single, reliable reference, everyone involved—from brand stakeholders reviewing the concept to factory technicians cutting patterns—works from the same shared vision.

But we also know that design doesn’t end at handoff. Even the most detailed tech pack is only part of the equation. Manufacturing is an iterative process, and unexpected challenges can arise when ideas meet real-world production. That’s why success depends on pairing precision documentation with open, ongoing relationships with manufacturers. At Interwoven, we don’t just pass off a tech pack. We stay engaged throughout production, reviewing prototypes, answering questions, and refining details.

This collaborative approach helps bridge logistical gaps, ensures that subtle but important design decisions are preserved, and reduces costly missteps. A well-crafted tech pack minimizes guesswork, but it’s the combination of clear documentation and active partnership that guarantees the best outcomes: products that deliver on both creative vision and practical performance.

Precision as a Creative Act

Technical design is where creativity transforms into reality. The sketches, prototypes, and ideas that spark innovation become manufacturable products through careful documentation and technical rigor. At Interwoven Design, our expertise lies in creating these assets with the same care we bring to concepting and design. So, we ensure every product we hand off is made with accuracy, quality, and intent.

If you’re looking to take your concept from an idea to a market-ready product, we’d love to partner with you. With our vision and professional-grade technical documentation, we turn your ideas into fully realized products.

Interwoven Design is a design consultancy positioned at the intersection of soft goods and wearable technology. Sign up for our newsletter and follow us on Instagram and LinkedIn to learn more about design and development! 

A Quick Guide to Design for Manufacturing

Great industrial designers do more than develop innovative ideas and create evocative sketches. They understand that to be successful, a product must be able to be successfully produced. The branch of design that deals with the many details that must come together for smart, successful industrial production is design for manufacturing. It’s a complex, ever-changing, and absolutely critical field of knowledge for designers. In this Insight article we will outline what design for manufacturing is and why it’s so important, and share some key considerations in the process.

What is Design for Manufacturing?

Designing for manufacturing is a strategic design approach that involves considering manufacturing constraints and requirements from the early stages of product design. It entails creating designs that are optimized for efficient and cost-effective production processes. Designers who practice designing for manufacturing ensure that the final product can be manufactured smoothly and at scale. This approach aims to eliminate or minimize potential manufacturing challenges, such as high production costs, assembly difficulties, and quality issues. By incorporating manufacturing considerations into the design process, designers can create products that are not only aesthetically appealing and functional but also feasible to manufacture in a timely and cost-efficient manner.

Why Design for Manufacturing?

Design for manufacturing is critical in industrial product development as it directly impacts the efficiency, cost-effectiveness, and overall success of the manufacturing process. By considering manufacturing constraints and requirements early in the design phase, designers can optimize their designs to ensure smooth production, minimize errors, reduce production costs, and enhance product quality. Designing for manufacturing involves selecting appropriate materials, choosing the right production methods, and creating designs that are easy to assemble. Bonus points for designs that are also easy to disassemble. When design and manufacturing are closely aligned, it results in streamlined production processes, shorter lead times, improved product functionality, and increased customer satisfaction. Ultimately, a strong focus on design for manufacturing leads to successful products that can be manufactured efficiently, reliably, and at scale, giving companies a competitive edge in the market.

Key Considerations

Material Selection

Material selection is important in designing for manufacturing as it directly influences the functionality, performance, and cost of the final product. Choosing the right materials ensures that the design can be successfully manufactured and meets the desired specifications. Materials possess unique properties, such as strength, durability, flexibility, and thermal conductivity, which can significantly impact the manufacturing process and the overall performance of the product. Material selection also affects the cost of production, as different materials vary in terms of availability, sourcing, and manufacturing complexity. Innovative materials offer opportunities to stand out amidst competitors, providing unique properties that can change the landscape of a product category.

By carefully considering material properties, designers can optimize their designs for manufacturing, ensuring that the chosen materials align with production methods and constraints. This not only enhances the manufacturability of the product but also contributes to its quality, reliability, and market competitiveness.

A product that showcases the power of smart material selection in designing for manufacturing are Tesla’s car bodies. Tesla’s engineers and designers made meticulous choices when it came to selecting materials, resulting in a vehicle that combines performance, efficiency, and safety. The extensive use of lightweight yet strong materials such as aluminum for the body structure and carbon fiber for certain components helped reduce the car’s weight, enhancing its energy efficiency and range. 

Production Methods

The production method selected for a given product directly impacts the efficiency, cost, and quality of the manufacturing process. Different products or product components may require specific production methods such as casting, machining, molding, or additive manufacturing, each with its own advantages and limitations. Designers can ensure that their designs align with the capabilities and constraints of the chosen manufacturing processes when they plan ahead and choose their production method wisely. This enables streamlined production, reduces material waste, minimizes production errors, and enhances overall product quality. Making informed decisions about production method selection in designing for manufacturing is necessary for achieving successful and cost-effective production outcomes.

An example of a product that demonstrates the use of a smart production method is the Apple iPhone. Apple utilizes a combination of advanced manufacturing techniques, including precision CNC (Computer Numerical Control) machining, to produce the intricate metal casings for their iPhones. CNC machining allows for highly accurate and repeatable manufacturing processes, resulting in precise and seamless components. This is how Apple achieves the sleek and seamless design of the iPhone. Apple’s adoption of automated assembly processes, such as robotic assembly and surface-mount technology (SMT) for circuit board assembly, ensures efficient and consistent production. By leveraging smart production methods, Apple can mass-produce iPhones with high quality, tight tolerances, and efficient manufacturing processes, meeting the demands of millions of customers worldwide.

Design for Assembly

Designing for assembly is another important aspect of designing for manufacturing. It focuses on optimizing the ease and efficiency of the assembly process. By considering assembly requirements and constraints during the design phase, designers can create products that are simple and intuitive to assemble, reducing the time, effort, and cost associated with manufacturing. Designing for assembly involves techniques such as minimizing the number of components, standardizing parts, and incorporating features that facilitate alignment and connection during assembly. By streamlining the assembly process, designers can enhance productivity, reduce the likelihood of errors or defects, and improve the overall quality of the final product. Designing for assembly can also lead to efficient disassembly and maintenance, which influences the repairability, sustainability, and the lifecycle of the product. 

An example of a product range that showcases smart design for assembly principles is the IKEA furniture range. IKEA uses a combination of clever design choices and standardized assembly methods to simplify the construction process for their customers. IKEA’s furniture typically features components that can be easily connected through mechanisms like cam locks and dowels, eliminating the need for complex tools or specialized skills. The use of clear, visual assembly instructions further enhances the user experience. By designing their furniture with assembly in mind, IKEA minimizes assembly time, reduces the risk of errors, and allows customers to efficiently construct their own furniture. This smart design for assembly approach not only aligns with IKEA’s commitment to affordable and accessible furniture but also contributes to their reputation for user-friendly products.

Conclusion

Design for manufacturing is critical for the success of any product. By considering factors such as material selection, production method selection, and design for assembly, designers can optimize their designs for efficient and cost-effective manufacturing processes. Careful material selection ensures that the chosen materials align with the product’s requirements, resulting in enhanced performance, durability, and cost-efficiency. Selecting appropriate production methods enables streamlined production, reduces waste, and improves overall product quality. Designing for assembly simplifies the construction process, reducing assembly time and errors while enhancing user experience. When designers prioritize design for manufacturing, they not only create products that are easier and more cost-effective to manufacture but also deliver better user experiences and improved product quality. Ultimately, design for manufacturing fosters innovation, reduces costs, and helps businesses stay competitive in a rapidly evolving market.

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A Q&A with Design for Manufacturing Expert Peter Ragonetti

A Q&A with Design for Manufacturing Expert Peter Ragonetti

Spotlight articles shine a light on designers and design materials we admire. Our founder and principal designer Rebeccah Pailes-Friedman has met many wonderful designers in her time in the industry, and in our Spotlight interviews we ask them about their work, their design journey, and what inspires them. In this interview we spoke with Peter Ragonetti, an industrial designer who specializes in design for manufacturing, production sourcing, and supply chain management. He works with startups to bring their visions to life and is also a professor at Pratt Institute, where he teaches an innovative course in design entrepreneurship and crowdfunding. We talked to him about what it means to design for manufacturing, the power of collaborating with manufacturers, and how designers have changed their approach to manufacturing over time.

Photo courtesy of Peter Ragonetti.

“The more we can teach designers the language of the business of manufacturing, the better prepared they will be to have collaborative conversations with manufacturers.”

Q: Could you talk about what design for manufacturing and what is distinct about it as compared to other areas of design?

A:  The principle of the design process is that we do concept development, and in concept development we throw everything at the wall to come up with crazy, fun ideas. As industrial designers, we don’t always consider how things will be made. We’ll say, Oh, it’s injection molded. Oh, it’s sewn together. Oh, there’s an app. But once you start resolving the ideas, you have to start thinking about, How is this actually going to get made? So, design for manufacturing and design for assembly — DFM and DFA — they go hand in hand, because if you can’t make the parts, you can’t deliver what the client wants. 

This is something that’s very common with young designers, they come up with manufacturing processes they know and assume that something can be made the way they would make it in a prototype. In design for manufacturing and design for assembly, there are different processes — that can be more time consuming or less time consuming — that change the cost of your product dramatically. An example: some people don’t think about how long something can sit in a mold. So certain parts will be designed with complex geometry and people say, Yeah it’s molded. Well that part may have a cycle time — which is how long it sits in the mold — of say, two minutes to cool to the point that it can be released and hold its shape. And that two minute cycle time can change your cost dramatically from something that cycles in 20 seconds. That’s a big part of it. 

As designers we sometimes take for granted the capabilities of our manufacturers. Really understanding what they’re good at and designing with them to make sure that you’re not creating some sort of really complex scenario that they’re going to have trouble manufacturing or assembling or packing out.

Q: What might that life cycle from concept to production look like? Could you share an example?

A: Yeah, that’s a great question. When I talk with clients, I say that if you want to be safe and build in all of the quality control and sample checks, you should really think about 12 month cycles: from a concept to a product in a warehouse, ready to sell. A good way to look at it is, if you ever work for companies that have holiday launches, you’re designing for Christmas next year, Halloween next year. The intention is that you’ll go through your design, go through revisions, you’ll go through prototyping, you’ll get into your design engineering and design for manufacturing, you’ll get samples back. You’ll have time to quality control it. You’ll run into your tooling and production time, which on both ends is usually at least 45 days. So you’re talking about 90 days of just tooling and production time, and that’s without even doing the quality control at the end. Then if you’re shipping it from overseas, you have six weeks on the water. So thinking about those lead times and working backwards is a really good way to set yourself up for success. 

I often say, When do you want it to be in your customers hands? Because that’s a good way to go backwards and say, Okay, if I want this to be delivered to a warehouse in September for holiday sales, I need to have it in my manufacturer’s hands by the end of April or the end of January. If you’re doing stuff overseas, you have Chinese New Year, you have holidays to consider. That said, I’ve also run projects where we’ve had products on the market in nine weeks, you know? In that case, you take out a lot of options. You run a lot of parallel tracks and you don’t build yourself any safety net if something goes wrong.

Q: How did you end up focusing on this specialization?

A: As an industrial design student, I always enjoyed the process of how products broke apart into parts. People bring me a product and I say, Well, how many parts is it? They say, Well, it’s three, and I say, Well, what about that screw? What about that thing there? What about that sticker? So I always enjoyed the idea of thinking about projects in parts, and I always enjoy the idea of OEM, Original Equipment Manufacturing, making your own product that’s never existed before. You can think of it like Legos, you get to kind of make your own Lego set of how things go together.

When I started designing for clients, I realized that there are good designers out there that can do beautiful concept work but they say, let the engineers figure out the rest. And every time that I started letting engineers figure my products out, they started making them sort of ugly. They started putting in things that I didn’t like. And I said, Well why, why is this fillet gone? What’s this here? And they say, Well, that’s so it can release from the mold or What fillet? They didn’t even see it, you know? I realized that I needed learn some more details about how to put together technical drawings and full tech specs to release for manufacturing. Then I started working with engineers and seeing how they created drawing files, how they put together their CAD files, how they design for tolerance. I started realizing that I was a good designer, but I wasn’t a great engineer. I started working on that in my 20s and I realized it was a lot more added value to my clients if I was designing something that was a lot easier for them to take to a manufacturer, or if they needed a mechanical engineer to get it launched.

Q: How might the constraints of a given manufacturer influence how you solve a design problem?

A: I would say, if you have the opportunity, go visit your manufacturers and see how their shops are laid out, see how their assembly lines are laid out, and see how the production lines are laid out. That starts triggering new ideas. You realize: Oh wow, I didn’t know you could make something like that. It starts giving you this opportunity to design around capabilities. 

At the same time, If you’re working with a manufacturer and they’re saying, I don’t think this is going to work, or I think this is going to be an issue and you say, Do it the way I designed it, and you sign off on it and it’s a problem, they’re not responsible for any mistakes. I’m not saying that you need to go after a manufacturer if there’s a mistake, but you want the shared responsibility of the product being successful. So if a manufacturer has a suggestion about…I can use the example of CNC [Computer Numerical Control]. Adding chamfer cuts to CNC jobs dramatically increases the time the job is in the machine. Instead, adding filleted radiuses actually isn’t that bad. So if you’re designing a part and you have all these chamfers on, all of a sudden, you’re getting these really high part costs and you talk to your manufacturing, they say, Well yeah, you designed it with all these complicated extra steps that the tool path has to make, so you’re adding costs to your part. So your manufacturer might say, We’ll make it however you want. Here’s your $60 part price. But a good manufacturer that you have a relationship with will say, Hey, man, if we just turn all these chamfers into slight radiuses, we can reduce your tooling time. You reduce your part costs by six bucks. So it’s a two-way street working with manufacturing and designing for manufacturing.

Also, the sooner you get out in front of what you’re planning to manufacture and start talking with people, the better off you are. A lot of times designers will work to this perfect thing, and then they send it out for manufacturing, and the manufacturer says, That’s a really tough part to make, or Can’t we just source that open channel? And the designer says, No. No, I designed it, it’s perfect. It’s ready. It’s important to be flexible, to work with them to get the best product. They want to pass all the quality control problem tests. They don’t want you to come back and say, Hey, this isn’t working. But if they’re designed to your specific thing and it’s wrong, it’s on you.

Some suppliers, they’ll just make whatever is on the drawing whether it’s good, bad, or indifferent, because that’s their job, to make what’s on the drawing. But great suppliers work with you. You sit down with them, you do some sketching, you talk through things, you open models, you spin it, they say, This is a problem area. Or, Can you add some draft here? Having that that flexibility allows you to get much better parts, much more quickly, with better pricing

Q: How does the collaboration with a manufacturer differ from country to country?

A: Language barriers are always always one thing. But designers do all have the universal language of being able to sketch and do visual communication. I was working on a pet product, it was a small animal habitat, a lot of molded plastic, and we were resolving some connections, how parts fit together and the little rings and collars that fit on it. And I’m sitting with the engineers. He didn’t speak English, I don’t speak Mandarin, and we have two interpreters. We’re sitting there and we’re working, and I’m drawing, and he’s drawing, and he’s drawing on my drawings, and I’m drawing on his, and we solved the problem without ever speaking. We drew it out. And then the interpreters started talking to each other. And we were already sitting back, sipping our Coca-Colas. So then we’re going to do this and add this. I say, Yeah, that’s exactly it. Yeah. And then both of us are doing a thumbs up, so that’s that’s one way. 

Doing offshore manufacturing overseas: every country is a little different. Southern China and Chinese vendors, some of the Vietnamese and Thai vendors are very good at getting you numbers very quickly. They will ballpark estimates for whatever you’re sending them. And then they may raise your cost if it’s more complex. They’re trying to secure the deal so they’ll get you a quote within a couple days. In America, getting quotes from manufacturers is a little more tedious. They’re a lot more diligent in checking costs and looking at parts, and it can take weeks sometimes to get quotes in America. I do a lot of American manufacturing as well, but it’s a lot more of: get on the phone and have phone conversations. For the people out there who are scared to pick up the phone and call someone, that won’t work. American manufacturers aren’t checking their emails every day. They will ask you to fax them things. I don’t want to say it’s antiquated, but generally most of the manufacturing — tier two, tier three — that I’ve dealt with, you need to just get on the phone. Call them up, talk to them and they have no problem. They’ll answer your call every time. It’s a very small factory. They’re very busy, they don’t have time. They don’t have people directly dedicated to communication like you would get in an Asian factory. In those places you have a dedicated person who’s talking to the engineers, who’s talking to the shippers. And their job is to just correspond with you every day and get you quotes quickly.

Manufacturers fall into three tiers. Tier one includes companies like Foxcom, which makes iPhones. They are down to tolerances of 100ths of an inch. They want four decimals after every dimension to make sure it’s exactly right. And they’re fantastic. They have every sort of safety certification, and they’re great to work with. They’re normally very expensive. They normally have very long lead times and you normally have to have pretty high qualities to work with them. So most companies that aren’t Apple or GM or GE end up working with Tier Two and Tier Three, which are in my opinion just as good but there’s a little less support. As I said, you may have a guy who’s on the factory floor watching parts come off the mold and not answering emails.

Q: What changes have you seen in how designers approach manufacturing over the course of your career?

A: It’s interesting, and this kind of comes back to design education. We don’t really train designers to talk to manufacturing. We barely train them in what manufacturing methods are. So they don’t have the language to even start the process of understanding what getting a quote from a manufacturer looks like. I’m not saying that that’s across the board. It depends what kind of company you’re with, some companies are structured such that designers are just supposed to design. You submit your drawings to an engineer. The engineer approves the drawings, and that goes to a sourcing person. That sourcing person talks to the manufacturer and then changes get made. And then it comes back down to you. You have to make the changes and it goes back up the line. I was fortunate that in the company I worked with when I first came out of school, which was JW pet, I was speaking directly to my manufacturers. Every single day they were sending me drawings back. They were sending me models. I was sending them models. So I got very comfortable talking about manufacturing with manufacturers. Then in my job after that, where I was a design director, I was speaking to them directly about making orders, setting up the cost of goods, figuring out where we can save money. The more we can teach designers the language of the business of manufacturing, the better prepared they will be to have collaborative conversations with manufacturers.

To be able to say, I want to quote my product freight on board with packaging, fully safety tested versus someone saying, Here’s a glass, quote it for me. They’ll quote it for you to pick it up at their dock, in bubble wrap, thrown in a giant box. You’re not giving them any sort of packaging requirements. You’re not giving them any sort of shipping requirements. Good sourcing people, good manufacturing people, good designers have been doing this for a long time. They want to quote in multiple quantities to see where the price breaks are. They want to look at tooling in different pricing. They want to look at options of different packaging and different shipping options because that may make or break the cost of goods.

Q: Do you have any advice for designers about how to address this hole in their education?

A: There are a lot of really good resources out there. I like to use crowdfunding to teach all these basic methods. After you have a design ready to go, what are the next steps? And we go all the way through sourcing and quoting and setting up orders to sales channels and funnels. Kickstarter has great resources on this. I highly recommend meeting and talking to engineers. Alibaba is the website where you can source manufacturing, and they have templates of quote sheets. Read what is included in it, like you would read an Amazon listing. They’ll say, This product is a minimum quantity order of 1,000 units at X price. It comes packaged in a white box…

I had a friend who was launching an apparel company and he went on to YouTube and he just watched YouTube videos about people talking about fulfillment and manufacturing and problems they had with things getting stuck in customs, things being shipped improperly, how to set up shipping documents, and how to talk to manufacturing. The big thing about making anything is that every single product and every single item you want to produce has its own unique challenges.

So whether it’s a dog toy, whether it’s something that has a computer mouse, a cup, they have their own challenges, they have their own safety requirements, they have their own import regulations. It’s a very broad thing to try to navigate. Ideally if you are thinking about launching your own product, I highly recommend finding someone in that industry who’s done it and asking them questions. They’ll say, Hey, that thing is a 30% tariff to bring into the United States, maybe you want to find an onshore or nearshore option. So we talked about onshore, that’s domestic U.S. Nearshore, that’s Canada and Mexico. Then offshore is Asia, India, South America. They may say, You really want to look at going to Vietnam for this because they’re experts at this type of material. You can find anything you want to make in China but there’s fantastic metal stamping out of India, there are incredible soft goods and textiles out of Turkey. Start getting creative and really thinking about where you want to get something made, because running to China is not the only answer, and fighting with U.S. manufacturing and having to deal with the slow moving beast that is, is also not the only answer. I source globally for everything I do, just out of curiosity, you know?

Q: What are you working on that’s interesting to you at the moment?

A: I have a couple projects going on right now that are really fun. One of my ongoing projects that I’ve been working on for a very long time is a hearing protection product called Earos. It was founded by a gentleman named Ronnie Madra who owned all the biggest nightclubs in the United States, and he developed tinnitus, the ringing in your ears from being in loud environments. He went and bought musicians earplugs, which you get custom fitted for, and they cost 300 dollars each, and then he promptly lost them. He hates phone ear plugs because they actually create an occlusion effect, like when you cover your ear and it sounds like you’re underwater. You can’t hear people talking and you can’t hear the music clearly. Ear plugs for musicians have a tenuation, they allow sound in and just reduce the volume. So he said,  Is there a way we can design these so they’re not $300? He developed a product called Earos that I got involved with at the inception, about seven years ago. I just love this project. We talk about wearing sunglasses, we talk about safety and health in so many other parts of our life. We don’t talk about our hearing. And hearing is so important because it doesn’t fix itself when it goes bad. So we developed this product with some MIT engineers. I did all the industrial design work, and then we launched a crowdfunding campaign. We raised a bunch of dough on it and then we worked with U.S. manufacturers to get it made. We currently mold this product in New Jersey. I think it is such a cool product; it helps people and it allows people to go out and have fun.

I’m also coordinating the minor in entrepreneurship at Pratt. We’re really trying to grow the entrepreneurial spirit of art and design school. Artisan designers are naturally entrepreneurs. You don’t become an artist and say, Well I’m going to go punch this clock every day. You have to be already entrepreneurial to want to sell paintings, to want to be a designer. Creatives often have this fear that they’re not business people, and they’re worried about going into the business side of things. I love sitting there and saying, Listen, an MBA from Harvard knows just as much about launching a product as you do, and it’s your product. MBAs and business people, they’re trying to run existing businesses. They’re not trained to launch brand new companies. 

The very successful father of a friend of mine gave me great advice once. I said, I want to start a business but I don’t know what I’m doing. He said, Well, start one. I said, I don’t know anything about it. He said, No one is stopping you from starting, from being an entrepreneur. You just have to start. 

So I’m trying to take some of that imposter syndrome away for these students, giving them the opportunity to have this dialogue with me and with speakers I bring in. They get used to hearing this business jargon and they feel much more comfortable when they launch something. That has been something that makes me very happy and proud.

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