Chapter II: Introduction to Lean Prototyping.
Our commitment to inventors like Juanâalong with everything we learn each day working hand in hand with leading innovation departments in the industry, and from the heartbreaking stories of inventors who lose everything along the way, including their dreamsâhas compelled us to gather the common denominators behind success stories and, why not, also behind the most resounding failures that have shaped our professional journey. Â
Lean Prototyping is a transparent method designed for people who share a common goal: turning product ideas into high-potential successes. Lean Prototyping is the result of 12 years of experience working with entrepreneurs, inventors, and innovation leaders from multinational companies. It was born from the most common doubts, frequent mistakes, and the most striking failures and successes we have witnessed.
The method has four fundamental objectives:Â Â
- Understand step-by-step the process of turning ideas into products with extremely high possibilities of success in the marketplace.
- Save money in the process of turning your idea into a product.
- Understand the common causes that lead most inventors around the world to failure.Â
- Build viable products with a high chance of success in the market.
The process of transforming an idea into a market-ready product with a real chance of success is defined by a series of steps. If these steps are not known or their order is altered, the consequences can be disastrous for the future of the project.
Understanding the processâand the correct order of its stepsâis so critical that over 80% of inventors who fail donât do so because of poor ideas, but because they waste time, energy, and money on meaningless steps that divert them from the milestones required to move forward.
Step No. 1 â From idea to concept, and from concept back to idea.
The first step in any creative process is to analyze the information that makes us believe there is a problem worth solving. A brilliant idea is useless if the market isnât interested. If youâve believed until now that the novelty of your product was the key to successâthink again. Itâs not enough.
Precisely, the cycle âFrom Idea to Concept and from Concept back to Ideaâ is designed to provide you with a structured reflection exercise that will likely lead you to new conclusions. Through practical exercises, we aim to help you reflect on questions you may have never asked yourself before.Â
We all have ideasâwhether in the shower, at the bar, or wherever we find the most peace (letâs not get into details). But how many of those ideas are we truly willing to launch? A lack of time, resources, family responsibilities, and countless other excuses often lead us to set them aside. Many initiatives with great chances of success end up forgotten in a drawerâand this is a reality youâve probably experienced too.
Thereâs no such thing as magicâwe canât guarantee the success of your project. But the truth is, if you follow the steps of Lean Prototyping without cutting corners, your chances will be well above average. In this first step, youâll be able to put all your initiatives to the test and compare the expected chances of success for each one. Â
As an early takeaway, the exercises weâll guide you through in the âFrom Idea to Concept and from Concept back to Ideaâ cycle will help you identify connections between your product and the problem you aim to solve for your target audience. Youâll analyze the product from different perspectives and will likely reach new conclusions about essential functional requirements that should be included. Of course, itâs also likely that some features you previously considered fundamental will take a back seatâbecoming future improvements or simply aesthetic elements of your ideal product.
Step No. 2 â Background of the Invention
Naturally, the main reason youâre reading this book is likely an idea for a product that doesnât existâor at least one you havenât come across in your initial internet searches.Â
Amazon, eBay, and Alibaba are some of the most commonly used search sources by the inventors weâve had the opportunity to work with. Itâs true that if a product isnât listed on these platforms, itâs very likely not available for sale. However, you must be cautiousâitâs quite common to find patents or intellectual property registrations that reference similar initiatives.
There are less popular but highly effective sources for conducting this type of search. In the chapter dedicated to prior art research, weâll provide you with sources and methods that will help you understandâthrough examplesâhow to carry out effective searches for potential prior inventions similar to your idea or product. Itâs completely normal for some prior art to appear during this kind of research.Â
This discovery often feels like a cold shower for inventors. However, in our experience, rather than being a problem or an obstacle to launching your new product, identifying and studying prior art provides a clear roadmap. On one hand, it proves there is a significant problem in the market that still needs solving; on the other, it allows you to use that information to focus your innovation efforts on improving existing protected initiatives. There are almost always ways to improve them and protect new developments under your own name. Â
To complement the innovative value and strengthen the differentiating aspects of your product, in the chapter âDoes My Idea Already Exist?â you will learn how to use three methods for searching prior art and patents related to your invention. The first method focuses on locating patented inventions through searches based on standardized codes used in the international patent market.Â
Thatâs right. Depending on the industry or sector your invention fits into, and the technological features of your product, youâll be able to identify established codes that will help you search for prior art in international patent databases.
As a complement, you can also conduct searches through competitors who are positioned as industry leaders. These companies often have multiple filings under their name, many of which may refer to inventions similar to yours.Â
The third method, although a bit broader and less precise, often delivers very good results. It involves a semantic search approach. By defining keywords that relate to your idea, you can identify inventions with features that, in some way, represent a technological precedent for your invention.Â
As weâve mentioned before, taking the time to conduct a thorough search using a combination of the three most common methods will allow you to structure a comparison thatâfar from creating fear due to the existence of similar patentsâwill become an essential guide for developing your product and drafting your own patent.
Step No. 3 â Technical Study. Inventing the Invention.
The technical study has a fundamental goal: to find and develop solutions that demonstrate the technical feasibility of your invention. While many inventors dive into the adventure with homemade prototypes and surprisingly clever DIY experiments, the truth is that a proper technical study goes much further.Â
In Lean Prototyping, youâll come across the phrase âbalance between technical feasibility and economic viabilityâ quite often. And for good reasonâachieving a successful product is impossible without that balance.Â
In pursuit of that balance, the technical study is divided into two main stages: experimentation and exploration.Â
In the experimentation phase, the main technical challenges are identified, and the optimal team is selected to tackle them. Through theoretical studies and practical experiments, the goal is to confirm the technical feasibility of the product, while also documenting all the alternatives considered and the advantages of the chosen solution over the others.
In contrast, the exploration phase supports the previous one by helping to focus efforts on avoiding common mistakes such as âover-engineeringâ or âearly attachmentâ to a single solution.Â
Over-engineering is a major pitfall in the product development cycle. The term âover-engineeringâ refers to the technical development of solutions that add little valueâor that already have widely available, standardized solutions.Â
Youâve probably heard the popular phrase âreinventing the wheel.â Exactly. Over-engineering is more common than we thinkâit undermines product viability and often leads prototypes to fail at very early stages.
The term âearly attachmentâ refers to the creation of dependency on suppliers at an early stage of the project.Â
If our product includes a touchscreen, itâs important to evaluate the commercial alternatives available when selecting the component. For example, some options are much easier to program and can therefore lead to a faster and more cost-effective prototyping process. However, during the technical study, we have a responsibility to highlight the risks associated with the level of dependency being createdâparticularly the potential economic impact and, most importantly, the magnitude of those risks. Â
In 95% of cases, inventors bring ideas for potential products that could be useful. These ideas are usually broad sketches of what the product might be. The technical study stage allows us to ground those ideas in reality, document their potential technical feasibility, and define how we will move forward with development in the future.
Step No. 4 â Prototype Design and Fabrication
Surprisingly, most inventors who come to our lab mistakenly believe that patenting the product should be the first step in the development cycle.
Letâs use common sense.
Do you really think your product idea wonât go through any changes during the development process?Â
The previous steps will bring a new technical perspective to your idea. From a technical standpoint, itâs very likely that decisions will be made that deviate from the original concept. As a result, these changes wonât be protected, and youâll be leaving the door open for other inventors to build on those gaps and secure patents for improved versions.Â
Many inventors, after securing a patent, end up having to invest even more money in additional filingsâor settle for launching products that are only partially protected. This makes innovation easier for companies that, by following the right steps, will manage to bypass the very protection the inventor was hoping for.
Among the greatest fears inventors face is the fear that their idea will be copied before it reaches the market. The inventorâs distrust toward the professionals involved along the way is both significant and completely natural.Â
There are useful legal tools available to create safe legal environments. Signing a Non-Disclosure Agreement (NDA) is one of the most common. Itâs important to clearly specify in these agreements what information is actually being shared and the duration of the confidentiality commitment.Â
Taking shortcuts or trying to follow cheaper paths during the product launch process can carry significant risks.Â
Once again, we invite you to use common sense.Â
Itâs no secret that factories invest hundreds of thousands of dollars to build infrastructure and acquire machines that enable mass production. For this reason, the success of a factoryâs business relies on keeping its machines running continuously, producing millions of units as quickly as possible without changing their configurations. The more units they produce, the faster they recover their investment in machinery.
Even though this model is widely knownâeven among inventorsâsome still see industrial manufacturing companies as a means for light prototyping. This is a serious mistake.
When you approach a factory with a product thatâs still in the idea phase, they will typically provide you with a quote for manufacturing a large number of unitsâand they will care very little about your productâs future profitability. A factoryâs main concern is not determining the most cost-effective and suitable manufacturing method for your product. Their priority is to adapt your idea so it can be produced using the machines they already have in their facilities.
We often share with inventors that factories will become one of their greatest allies in the future of the product. However, approaching them too early can lead to serious financial consequences and potentially ruin your bottom line.Â
By now, your perspective on the process of launching an innovative product to the market has likely shifted in meaningful ways. In the chapter âPrototype Design and Development,â youâll gain a deeper understanding of the real benefits of a functional prototype.Â
The fabrication of a functional prototype is not a linear processâitâs a cycle of trial and error. It serves to demonstrate that your product works, and more importantly, that it does so while maintaining forms that are viable and optimal for the subsequent stages of development.
Like any process of experimentation and innovation, youâll experience moments of excitement and joyâbut also times of deep frustration.Â
There are three fundamental ingredients for a successful prototype design and fabrication process: iteration speed, interdisciplinary integration, and the expertise of professionals experienced in developing innovative products.Â
Iteration speed refers to having a development method that allows for rapid testing of proposed solutions, selecting cost-effective options, and quickly learning from productâuser interaction. Most products are not developed by a single professional alone. Itâs very common for prototypes to require input from multiple perspectives and disciplines, such as mechanical engineering, industrial design, software development, electronics, and communications.Â
Another common mistake at this stage is choosing teams that donât include all the necessary disciplines. Bringing 11 strikers to a soccer match doesnât guarantee youâll win the game. You need the right integration of diverse specialties, depending on the type of product youâre developing.Â
Experience in product development is essential to create a prototype with real potential for industrialization, keeping costs under control and ultimately leading to positive outcomes for your future financials. The process of designing and fabricating a functional prototypeâone that closely resembles the final product in both appearance and functionalityâis critical to achieving a successful product. You could hire the best designer in the world to shape your product, and they might contribute incredible ideas and deliver an outstanding visual concept. But if that professional lacks experience and understanding of future industrial processes, you could end up putting your initial investments at serious risk.
In addition to diving deeper into these critical insights for laying the foundation of a product with strong market potential, youâll also explore the most widely accessible technologies on the market, understand the limitations of functional prototypes, and develop a development strategy that will help you organize the financial resources needed to launch your businessâeven from the very early stages of the project.
Step No. 5 â Protect What You Invent
We knowâthis step is key for you.Â
For an inventor, obtaining a patent is like winning the Champions League for Real Madrid or the Super Bowl for the Miami Dolphins.Â
Of course, we understand its real importance. But unlike what most inventors believe, obtaining a patent is not a final milestone that guarantees successâitâs just one more step in the process, and it doesnât mean your product will be successful.
In the chapter âProtect What You Invent,â youâll not only learn more about the most commonly used forms of legal protection in Europe and the United Statesâthe markets we know bestâbut also engage with real examples and scenarios where patents played a key role in achieving a happy ending, as well as others where obtaining a patent too early backfired on its creators.Â
Most inventors are unaware of the logical order for bringing an invention to market and end up making serious mistakes in their rush to secure the long-awaited patent. Itâs like a surge of adrenaline that makes them feel the product is closer to success. On the contrary, patenting too earlyâand without the right informationâcan become a recipe for failure.Â
There are five common questions that we aim to clarify, using arguments and practical experiences drawn from real casesânot just the well-known stories of the invention of the light bulb or the Chupa Chups stick, which are often repeated as motivational examples for inventors.Â
- What is the right time to patent an innovative product?
- When and how can you find out if your product is patentable?
- To what extentâand for how longâdoes a patent protect you?
- What types of patents exist, and how can you choose the one that best fits your invention?
- Why can patents become a false rush of adrenaline for inventors?
Itâs no secret that human beings are solely responsible for creating the conditions and tools to improve their quality of life. Thatâs why establishing a safe and organized structure to encourage the disclosure and introduction of inventions that promote development is an international priority. As you already know, technology is cumulative by nature, which makes it essential to study existing patents in order to form a solid judgment on whether or not it is viable to patent a given solution.
With this premise in mind, we can anticipate that the fundamental objective of patent law is to promote technological advancement and encourage creativity within a legal framework that protects it in all its forms. This objective also implies that not all inventions are patentable; to qualify, an invention must offer novelty and, moreover, that protected novelty must provide clear benefits to its users.Â
Another common self-deception in patent drafting is the lack of clarity in the descriptive report of the invention. In an effort to maximize the chances of approval, some advisors resort to using overly complex words and convoluted phrases that are difficult to understand. If weâre not absolutely certain that our product is truly patentable and feel the need to rely on old tricks like this, chances are the patent will hold little real value. So, only file for a patent when itâs truly worth it. Donât waste your money.Â
When we combine the widespread lack of information among inventors with the conflicting opinions of professionals, we get an equation that, unfortunatelyâand all too oftenâdoes not protect inventors or support their motivation. Instead, it becomes a process that crushes the dreams of many brilliant minds. If you find yourself in a similar situation or want to avoid it, within these pages youâll find answers like youâve never heard them before.Â
Step No. 6 â Business Models for Inventors
By nowâeven without having explored each chapter in depthâwe can probably agree that no matter how good or innovative your product is, itâs not the only tool needed to bring your project to success. Itâs essential that youâre able to design a business model and strategy that serve as a bridge between your ideas and the potential market whose problem you aim to solve.Â
Inventors are often highly creative and spontaneous individuals. While these traits are usually the driving force behind their ability to create solutions that most people would never think of, itâs also true that they tend to face significant challenges when it comes to designing business models and strategies to transfer their knowledge and turn their products into real business opportunities.Â
Unfortunately, more than 50% of the inventors weâve had the opportunity to work withâafter securing their patents, prototypes, and even industrialization plans for mass productionâend up abandoning the venture once they realize their limitations and shortcomings in designing efficient business models that can turn their ideas into the driving force behind a profitable project.Â
We all have a point of incapacityâa discipline or area in which weâre not experts, or tasks that literally terrify us. Inventors, despite creating brilliant products, also face this reality. The key difference between inventors who succeed and those who give up isnât the amount of knowledge they possess, but rather the willingness and determination with which they tackle their shortcomings. Forming multidisciplinary teams and actively seeking support in areas outside their expertise are among the most common strategies used by the successful inventors weâve encountered.Â
If youâre one of the brave souls who never gives up and chooses to highlight your weaknesses instead of hiding or avoiding them, then this bookâand especially this chapterâis for you.
Often the concepts of âBusiness Modelâ and âBusiness Planâ are confused. The Business Model is the logical map that outlines how inventors can extract value, raw materials, and technological fundamentals from society to transform them into innovative products tailored to the needs of potential customers. This logical map is based on an economic balance between the costs associated with the production process and the revenues derived from the commercial exploitation of these products.
In contrast, the Business Plan is the tool that encapsulates the strategy and overall planning for the evolution of the business. It covers the main strategic objectives, defines the necessary resources, and outlines the economic expectations for the development of the model.Â
Surely, at some point in your career as an inventor, youâve thought that after a great idea, a patentâand in some cases, a functional prototype to validate its operationâare all the tools you need to sell the rights to your idea, make a lot of money with minimal effort, and spend your time sipping mojitos in the Caribbean while you dream up your next inventions. We donât know if some have enjoyed that stroke of luck, but the hard reality for the inventors whose success weâve witnessed is that they needed a solid business model and some market validations before that coveted moment arrived.Â
The good news is that over the past 12 years, weâve documented both the successes and mistakes of the inventors weâve worked closely with. Furthermore, we have structured that experience into three business model patterns that will serve as inspiration for you to design your ownâtaking into account the main risks associated with each decision.Â
Would you like an introduction for this step or additional content details?
The industrialization of a product refers to the process of transforming a functional prototype into a product that can be replicatedâusing industrial methods and meansâin an unlimited number of units. As you already know, many inventors try to initiate the industrialization process before manufacturing a functional prototype. This decision carries risks that could jeopardize the entire process, especially when the inventorâs financial resources are limited.Â
While itâs true that the unit cost of a product manufactured using industrial methods can be as low as 1% of the cost of a functional prototype, itâs also true that any transformation, improvement, or error at that scale can cost tens of thousands of dollars. In contrast, a functional prototype crafted with artisanal techniques provides the inventor and the engineering team with a trial-and-error cycle that allows them to learn enough before transitioning to industrial productionâensuring that changes which might otherwise cost tens of thousands of dollars can be resolved with much more modest investments.Â
Nearly 30% of the products available on the market are manufactured in China. Itâs an open secret that Chinaâs industrial structure has drained the worldâs most powerful manufacturing ecosystems.Â
European and American industrial networks have been significantly impacted, and although we are all aware of the consequencesâand indeed, we are experiencing themâwe have very few business opportunities unless we can achieve manufacturing costs that are nearly impossible to match outside of the vast Chinese phenomenon. This loss of opportunity is transforming the behavior and business models of small Western factories, which are undoubtedly the most affected.Â
Letâs put ourselves in context: no matter how small a factory may be, its facilities and machines represent million-dollar investments that can only be amortized and become profitable if mass production runs without interruption. Every minute a machine is idle represents significant losses for manufacturers. Faced with an evident shortage of customersâthanks to the very Chinese phenomenonâmanufacturers have seen a great opportunity in the inventor ecosystem. This is why we now see these types of factories advertising their prototyping services.Â
Once again, we appeal to your common sense. How is it possible that a factoryâwith expensive machines designed to produce millions of unitsâcould also be the ideal setting for prototyping? Letâs not forget that the key objective of the prototyping process is to iterate and learn the best way to achieve the productâs functions. The answer is simple: itâs impossible. During prototyping, factories only ensure that the product is compatible with their existing manufacturing methods, which in no way means itâs the best or most cost-effective way to achieve its functions. In short, industrial production methods will be a strategic partner in your career as an inventor. Without their involvement, it will be very difficult to create a competitive product in the market; however, involving them too early poses more risks than benefits.Â
Also, as a preliminary conclusion of the chapter, we must mention the tremendous risks associated with manufacturing a functional prototype with an engineering team that is divorced from the fundamental principles of the industry. This phenomenon is quite common when, instead of using specialized prototype development laboratories, we resort to freelancers as a âlow costâ solution. While an industrial perspective should not be the primary objective for the first version of your prototype, it is important to adhere to basic principles so that any adaptations needed during industrialization are minimized. Of course, in the chapter âIndustrialize Your Prototype,â in addition to outlining common industrial solutions and the key criteria to consider when initiating this process, we will also share some guidelines that we strictly follow at Letâs Prototype to manufacture functional prototypes that, besides demonstrating the productâs functionality from very early stages, help optimize investments in the productâs industrialization process.
Step No. 8 â Sell Your Product
Despite years of working closely with entrepreneurs and inventors, we certainly donât have the ability to predict what makes a good or bad product. Most inventors look to us for validation of their ideas and for signals that bring them closer to success. With that in mind, despite our experience, we prefer to remain impartial and give equal importance to both very simple projectsâtechnologically speakingâand those that truly aim to be revolutionary products.Â
No matter how harsh it may sound, weâve found only one common denominator between successful projects and those that end in resounding failures. That common denominator isnât in the productâit lies in the inventor.Â
Many inventors have a very narrow vision of what their projectâs journey will be. Their dream begins and ends with a patent that they plan to sell, allowing them to live off it for the rest of their lives. Others, much less frequently, possess a clearer and more comprehensive understanding of the effort required to sell a product in the marketâof connecting with customers and continuously learning from their behavior to improve the productâs performance. These few are usually much closer to a successful path.
Challenges such as determining the productâs price and selecting the optimal sales channels for each product are often major sources of uncertainty. The most common mistake in the pricing process is to focus solely on analyzing the production and logistics costs. Of course, this analysis is very important and controlling those costs requires significant effort. However, itâs also an open secret that prices arenât set by listening to abstract voices telling us how much margin to add to the production cost. Instead, this decision is much more closely linked to the perceived value we can evoke in the end customers. This is why itâs crucial to incorporate this variable into the analysis from the very beginning of the cycle, just as we propose in the Lean Prototyping method.Â
When we talk about sales channels, we refer to the optimal environments for selling our products. For many decades, the key variable in defining these channels was their level of popularity. According to some outdated theories, we were supposed to target the most populated, bustling environments to advertise our productsâbelieving that this would maximize our sales opportunities by the law of probability. The truth is that analyzing the popularity of a sales channel remains important, although we now know that market behavior has radically changed with the democratization of the internet. These shifts demand that, as entrepreneurs, we not only find the most crowded channels but also those that are most appropriate for the user and guarantee a flawless experience.Â
A few decades ago, coffee manufacturers had it very clear. They knew they needed to achieve the best aroma and flavor, maintain adherence to the production processes associated with their geographic denominations of origin, maximize the appeal of their packaging, and excel at negotiating with supermarketsâsince the placement of their products on the shelves determined 100% of their sales outcomes.Â
Today, these same manufacturers face new challenges in connecting with their customersâchallenges that go beyond just balancing price and shelf placement in supermarkets. Their customers, in addition to appreciating aroma, now value the brewing time of a coffee, the productâs precise dosage, and its compatibility with widely available household appliances. These shifts compel manufacturers to seek sales channels that allow them to be present at the right time and place, in the most convenient way for their customers.
With this shift in understanding market behavior, our friend Pedroâheir to a coffee production company with a century of historyâhas managed to innovate not only in his product but also in his sales channels. Today, he sells coffee capsule organizers that are compatible with different models. This allows him to gather data on capsule consumption at home and help his customers make purchases exactly when they need them, all from the convenience of their own mobile devices.Â
Donât worryâweâll get to the sales section in this practical guide for inventors like you, who understand that by now, customer convenience is just as crucial as the innovation we attach to the product.
Chapter III: Where Ideas Are Born
âIâm not an inventor, I just have an ideaâ ⊠this is how the vast majority of people we speak with every year introduce themselves. The truth is, we love that beginning. In most cases, those who donât label themselves as inventors do so because they see themselves more as entrepreneurs than inventorsâand that means they not only have an idea that could change the world, but theyâre also willing to make it happen.Â
As weâve seen before, for our idea to be considered an invention, it doesnât have to be conceived by someone from another planet or look unlike everyday objects. A wonderful invention is one that a user can simply pick up and immediately make full use of without lengthy explanations. This effect is achieved when the invention is refined by improving upon an existing element.Â
Unfortunately, daily routines, a focus on problems, and the supposed lack of time all work against our creativity. We firmly believe that no one is born an inventor, nor is anyone destined from the very first spanking to become merely a consumer of products created by others. Creativity is a skill that can be developed and honed through widely available methods. From childhood, we nurture it to varying degreesâeven though, in many places, the education system actually stifles its development by prioritizing memorization over logical thinking.Â
Apartando un tema tan relevante como el por quĂ© somos mĂĄs o menos creativos y quĂ© podemos hacer para mejorar nuestra capacidad de crear, centrĂ©monos en describir los escenarios donde con mayor frecuencia podrĂamos obtener ideas de productos que nos lleven al Ă©xito.Â
Iâm sure youâre already thinking about itâwhether itâs while tossing and turning in bed, at the bar, or in the shower. This only highlights just how little time we have to reflect, iterate on our ideas, and, of course, create.Â
We also assume that creating an innovative product is some sort of miracle, and that weâre meant to serve as the landing strip for those great ideas. Nothing could be further from the truth.Â
The primary tool for generating innovative ideas with extremely high potential for success is attention. Itâs our ability to observe and listenânot merely see and hearâthat allows us to deeply analyze the problems that surround us every day, problems that only a few are able to identify. This is the true breeding ground for ideas with remarkable potential.Â
Keep in mind that the scenarios or sources of initiatives described below arenât unique, nor are they fixed concepts. After working with countless inventors, we have gathered the most common elements from their stories about how their ideas originated.
Unsolved Problems.
Until a few years ago, when we first started working with inventors, we were firm believers that creating a new business meant identifying unsolved problems. However, working with hundreds of inventors each year has led us to conclude that itâs extremely difficult to find a problem for which there is no solution at all. This is mainly because, whether ideally or not, the human mind is always seeking alternativesâand that is precisely what enables us to move forward.Â
Therefore, we should train our attention system not so much to hunt for unsolved problems in our daily lives, but rather to identify the troublesome situations we experience and observe every day.Â
Didnât coffee exist before capsule machines?
According to popular legend, an Ethiopian shepherd named Kaldi in the 9th century noticed that his goats became very lively after eating certain plants. Experimenting on his own, he tried these plants and experienced a caffeine boost. He shared this discovery with a monk, who was the first to brew the famous beverage as an infusion. But it wasnât until as recently as 1986, under the Nespresso brand, that the first version of what we now know as coffee capsule machines hit the market.Â
Was the problem solved?Â
Coffee has been one of the most popular and accessible beverages from the 9th century to the present day. Itâs no secret that its preparation methods have continuously evolvedâwith each version testing the balance between preserving its aroma and flavor and the time we invest in preparing it.Â
Since Erik Favreâs first version, the problem was solved. Hundreds of years before Erik Favre was even born, coffee was enjoyed worldwide, and dozens of methods for its preparation had already become popular.Â
While hundreds of millions of people drank coffee every morning, merely enjoying its aroma, Erik Favre focused on identifying problems or areas for improvement in the process of brewing and consuming coffee.Â
Which ones?
Coffee capsules allow the product to be preserved without any risk of moisture, thereby ensuring a completely excellent experience.Â
Coffee capsules provide a precise level of dosage that, when combined with the machineâs features, ensures that the coffeeâs flavor is always consistentâavoiding the risks of poor preparation practices that, in one way or another, undermine the overall experience.Â
The ease and efficiency of this new preparation method allow consumers to devote their time to what truly matters: enjoying their cup of coffee.
Thereâs no doubt that during his time as an engineer at NestlĂ©, Erik Favre didnât focus on creating a groundbreaking product that would change the world. Had that been his aim, itâs unlikely NestlĂ© would have supported him. Instead, his focus was on finding improvements in a process that, without a doubt, had significant room for enhancement.
Youâve probably heard the phrase, âYou need to create an innovative product and then learn how to create the demand.â
One of the gravest mistakes inventors make is thinking they have the ability to create a need solely from their creationâthe product itself. Perhaps there might be an example that supports this theory, but in reality, we havenât seen one.
A few weeks ago, while giving a lecture at a prestigious business school, we posed the question like bait left in the open: âIs it possible to create need?â
Using examples like the iPod or motor vehicles, almost 90% of the studentsâwho were all engineersâwere absolutely convinced that in these cases, need was created.Â
If we delve into the iPod as a product, it certainly has easily identifiable precedents. The real need was to make daily activities and commutes compatible while listening to music. In this sense, at the end of the 20th century, Guglielmo Marconi tested the first portable radio transmission, so by around 1900, portable radios began to democratize. Users could move around with their device, more or less heavy, more or less bulky, more or less optimized for autonomy. But, didn't this need get met?
The Sony company, evaluating the market behavior with portable devices, did not just settle for improving their autonomy and listening quality. They discovered that users, in addition to listening to music or content wherever they went, greatly desired to choose what to listen to at any given moment. To address this evolving need, they developed and led the market with their Walkman and Discman, inventions that came to light in 1979 and 1984 respectively, following the introduction of cassettes and later CDs, capable of storing content that would later be managed through the devices Sony democratized in the market.
Understanding user behavior over the years was a key ingredient for Apple. The need existed and was being met, but not very efficiently. Users had to carry multiple CDs just to listen to whatever they wanted at any given moment. By capitalizing on the emergence of the mp3 format and the proliferation of the internet, Apple developed the iPodâa true revolution. It was a product that granted users the freedom to listen to music wherever they wereânot just the 20 songs found on a CD, but countless hours of musicâall through a device that fit in a dress shirt pocket and was so light it barely altered the fabric.Â
So, do you really think that Apple created the need to sell their iPods?
I must also confess that the last time I posed this open question, a student with clear entrepreneurial instincts stated, âIt wasnât Jobs with the iPod, but who can deny that Marconi created the need?â
Before the transmission to portable radios, before the existence of batteries, even conventional radios, humans already had the need to express themselves, communicate, and be heard. The technological development surrounding this great need has allowed us today to have the opportunity to choose the information we consume and the format in which we do so.
No. Absolutely not. Marconi didnât create need, nor does it make sense to cling to an idea that requires us to manufacture a new need in the market. Faced with such reflectionsâwhich, unfortunately, are all too commonâwe often encounter product ideas that solve no problem and are, therefore, doomed to failure.Â
Surely youâve heard the phrase: âIf I had asked my customers what they wanted, they would have said a faster horse,â famously attributed to Henry Ford. Ford clearly understood that it wasnât about creating a new need but about analyzing the existing ones and responding to them more efficiently. Thatâs why, instead of âsearching for faster horses,â he focused on solving the challenges of industrial manufacturing for motor vehicles, thereby democratizing this type of solution.Â
From Mr. Fordâs intriguing statement, we take a key lesson: customers wonât necessarily articulate the description of their dream product. Moreover, what they express may not always be entirely reliableâneither for the good nor for the bad. It is our responsibility as inventors to pay close attention to the behavior of potential customers, design efficient solutionsâeven ones the customer might never have imaginedâand ensure these solutions fit their problems like a glove.Â
When we say âfor the bad,â we aim to highlight the significant risks associated with surveys, focus groups, and similar market behavior study methods. The common denominator of these approaches is that they rely on customer feedback or responses. In our humble opinion, when creating a new product, merely studying responses is not enoughâin fact, it may be more beneficial not to ask questions at all. To drive an effective innovation process, we must observe user behavior and their reactions to the product, ideally in environments where they donât feel observed.Â
Over-Solved Problems
While most inventors focus on identifying problems that remain unsolved by the products on the market, the truth is that there are many business opportunities based on simplifying existing solutions.Â
Frequently, we assume that by adding technology and complexity to products, we secure stronger patents and create more comprehensive solutions. However, this notion often backfires for many entrepreneurs, as excessive integration can lead to two problems: making the product far more expensive than what a customer is willing to pay to solve a problem, and/or making the product more complicated to use.
A clear example of this business opportunity can be seen with the Cigar Humidity Controller. Cigar smokers face a significant challenge in properly preserving their cigars. To address this, they use containersâtypically made of cedarâdesigned to maintain a relative humidity between 65% and 70%, which is considered the optimal environment for preservation. When cigars are stored in conditions where the relative humidity falls outside this range, their quality is at risk. Thatâs why monitoring the relative humidity in these storage containers is a daily task for cigar aficionados.Â
Many companies in the sector have ventured into developing digital hygrometers that connect to mobile apps, allowing users to monitor the relative humidity of their cigar storage containers at any time. This solution incurs a fixed cost for the companies, covering the maintenance and updates of the mobile apps on the main operating systemsâboth iOS and Android. In addition to these maintenance costs, there are also manufacturing costs for each digital hygrometer sold through specialty stores and online platforms like Amazon.
From the customersâ perspective, these solutions come with their own challenges. Users must navigate a learning curve to sync the devices with the mobile app, sacrifice valuable space on their mobile devices, and ultimately, pay a price that reflects the ongoing costs incurred by companies to maintain these mobile applications.Â
As an alternative to that solution, at Letâs Prototype we designed and manufactured a device for an inventor that we call the Cigar Humidity Controller. The design and development process focused on creating a device that occupied very little space in the storage container, maximized battery life, andâmost importantlyâdid not require a mobile app to alert users. The result was a small electronic chip (sensor) that, once placed in the container, communicates only once with a mobile phone to request the userâs phone number or the initial configuration for the humidity range to be monitored. From that moment on, the device is capable of analyzing the relative humidity of the storage environment for two years without any user interaction. Only when the relative humidity poses a risk to the cigars does the device send an SMS alert to the user.Â
Clearly, the Cigar Humidity Controller addresses the same need as other widely available devices in the market. It spares users from having to continuously monitor the condition of their humidors. Instead, with the Cigar Humidity Controller, they donât have to use up space on their phonesâand consequently, they arenât burdened with the cost of maintaining entirely unnecessary applications.Â
The addition of complexity to a product or the piling on of extra features in its design does not, in itself, represent a competitive advantage. Competitive advantages are much more closely related to product simplicity and a focus on solving a problem excellentlyâwhile ensuring that customers use the product in a simple way and pay only what is fair to appreciate the value we intend to provide.Â
It would be a mistake to think that in all cases, when we develop products that aim to simplify a solution that excessively solves a problem, we give up part of the price users are willing to pay for the solution. Although in many cases simplification is achieved through a process that involves âdecaffeinatingâ the product, the truth is that some entrepreneurs have managed to maintain, even maximize, economic performance by bringing their simplified solutions to market. The Remarkable is a clear example of this type of scenario.
Many users attach great importance to the notes we take during meetings, and keeping them organized can quickly turn into complete chaos. When studying or reviewing a book, we appreciate being able to make marks, create our own diagrams by annotating texts, and link concepts with lines. These techniques help us capture and remember information more effectively. Leading manufacturers of mobile devices have recognized this significant need, which has led to the development of tablets and smart styluses. These intelligent pens allow us to create our own annotations on a deviceâs screen, which can also be used to send emails, watch videos, and browse the web.Â
A few years ago, we witnessed the market launch of the first version of reMarkable, a device based on what we now know as e-paper. Its founders dismissed the myriad possibilities offered by a traditional tablet and focused on replicating the sensation of writing with a pen on paper. They achieved this so successfully that, despite their devices having connectivity limitations, forgoing advanced connectivity features and a web browsing interface, they have managed to stay in the market with their electronic notepadâpriced very similarly to, or even higher than, high-end mobile devices designed to address that need.
Therefore, inventors, our conclusion from examples like reMarkable reaffirms that the most profitable innovation in the market isnât about piling on senseless features to impress users or overwhelming them with technology. Quite the oppositeâthe key to success is to understand the essence of the need and to be truly disruptive in the way you address that specific need.
Demographic transformations.
Observing and analyzing market data is one of the most effective tools for drawing conclusions that can inspire inventors and entrepreneurs to develop a new product. Itâs no secret that in todayâs globalized worldâwhere communication is ubiquitous, employment opportunities arise dynamically, and cultural experiences are readily sharedâan unprecedented migratory flow has emerged. Its magnitude is such that the customs and idiosyncrasies of a society can be enriched and transformed by these demographic changes.
In Spain during the early 1990s, it was unlikely to find food products on supermarket shelves that didnât belong to the Mediterranean diet shared by Spaniards. Today, 100% of markets have at least one section dedicated to Latin products to serve the growing immigrant population residing in the country. This shift in product offerings is a direct response to the undeniable demographic changes brought about by Spainâs more flexible migration policies toward Latin American societies.
Focusing on Spain as the setting where our invention fabrication lab was born, we can see that until very recently, baseball was a little-known or unpopular sport in society. It still is to some extent, but in cosmopolitan cities like Madridâwhere the population density of immigrants is so noticeableâthis sport is gaining increasing relevance. Like football, baseball is a sport that requires a large number of participants to play a game and demands specially adapted fields for practice. Such facilities are only developed in places where the sport is a true passion.
The lack of specialized fields, along with the challenges of coordinating enough players to organize games, led our clients to commission us to develop a virtual field. This solution is fully compatible with the facilities of an entertainment center in commercial premises, creating a virtual scenario where a player can independently practice batting by simulating ball trajectories on a screen and recording real-time data that determine the playerâs efficiency.
Itâs true that similar initiatives have already been researched worldwide, especially in the United States. Nevertheless, our clients, together with our product development team, have identified clear improvements that we hope will soon provide a complete and realistic solution for Madridâs new residents, allowing them to continue practicing their sport while overcoming the challenges theyâve encountered.Â
Hospitality is one of the industries that adapts and transforms the most in response to demographic changes. Just look at the growing number of consumers of Japanese and Mexican cuisine worldwide, driven by the social transformations triggered by these demographic shifts. The democratization of international dishesâand the ease with which people can access quality standards for these meals across different countriesâhas motivated restaurant chains and small businesses alike to develop innovative machines that emulate very complex and delicate preparation procedures to produce top-quality international dishes.
At Letâs Prototype, we have immersed ourselves in the world of high Mexican cuisine to design tortilla-making machines that produce tortillas in a way that closely follows the oldest and most deeply rooted recipes in the countryâs culture. Similarly, we have developed engineering projects that resulted in machines designed to systematize the procedures involved in sushi preparation, all without sacrificing the textures and quality standards that have made this dish so popular in Western culture.Â
Not only can demographic changes driven by immigration reveal new opportunities, but simply analyzing societal structure data can also lead to conclusions that spark the creation of new products. For example, the analysis of Spainâs aging populationâand the overwhelming data forecasting the rising average age over the coming yearsâhas become a common source of inspiration among the inventors weâve worked with during the early years of our lab. We have even participated in developing electromechanical belts designed to deploy a sort of cushion to help prevent hip fractures among the elderly when they experience common falls. These devices are even equipped with features that can alert caregivers to the potential for such falls by mathematically analyzing the behavior of older users wearing them.Â
The growing wave of dependency among the elderly, driven by the aging of society itself, has also been the cornerstone for some inventors who have decided to innovate in non-invasive remote monitoring solutions. These solutions allow the elderly to carry out their daily lives without feeling that their privacy is being invaded, while keeping their loved ones informed about their daily activities and preparing these devices to generate alerts when the routine of the elderly is disrupted.
Without a doubt, growing as analysts of a societyâs demographicsâand our own development as global citizensâopens many doors to insights on the development of new products. This enables us to seize the growing business opportunities that arise from evident conclusions, which often remain imperceptible to those who donât pay attention to such details.Â
Emergence of new technologies.
Inventors and entrepreneurs are naturally inclined to study the latest technological trends, stay updated on, and test the newest products launched in the market. This serves as an excellent starting point for an innovation process and the pursuit of new opportunities. Regarding this common tendency among those of us who share the âInventorâ DNA, we only need to avoid a narrow-minded view of the innovation achieved.Â
A biased analysis or perspective on new products refers to the view shaped by the marketing strategies surrounding a given product. For example, around 2009, Microsoft began to popularize its famous Kinect sensor. When we talk about this sensor, you likely recall the Xbox video game console, as the product was launched as an accessory to this gaming system, aiming to respond to the latest advances that Nintendo had popularized with its Wii model, which had been democratized in the market since around 2006. The major innovation of the Wii was its controller, which allowed players to control on-screen avatars using physical movementsâtransforming video gaming into an activity for the whole family. Microsoftâs response with Kinect was decisive; they entered the market with a sensor that, without the need for controllers, could precisely capture and reproduce the movements of players in front of the screen within various game avatars, thereby offering a much more realistic and immersive experience.Â
Regardless of the assessments we might make about the competitive dynamics between these two tech giants, we must not lose sight of whatâs truly important. With Kinect, Microsoft brought to market a relatively affordable, portable device capable of analyzing human movement and voice recognition like never before.Â
A biased view of this product might lead us, as inventors or developers of innovative products, to focus solely on creating new games for Microsoftâs ecosystem based on the sensorâs technological capabilities. In contrast, part of our Letâs Prototype team experienced firsthand the development of a solution that later became known as Neurobia Research. This solution was based on a mathematical model that, by leveraging Kinectâs precise tracking of 21 points on the human body, was able to accurately and quantitatively assess and compare the motor evolution of patients who had suffered acquired brain injuries, especially strokes.Â
The famous Microsoft sensor for its latest gaming consoles, in addition to enabling precise movement diagnostics to complement medical assessments, was later used as a basis for developing other optimal solutions to restore the motor abilities of these patientsâand even to help them recover language-related skills. I fondly recall the moment when, for the first time, we managed to simulate an Olympic stadium scenario on-screen, where physiotherapists, based on their precise assessments of patients, pre-recorded movements that were then simulated by an avatar. This avatar guided patients from their homes, indicating the objectives to achieve with each movement. Moreover, during medical consultations, specialists could quantitatively evaluate and display in graphs the percentage of success and progress for each of the patientâs essential movements, enabling them to prescribe the recommended exercises with much greater precision.Â
The vision of the medical team and mathematicians we had the opportunity to work closely with allowed us to identify, in a sensor originally designed, marketed, and intended for gamers, an optimal solution to democratize and substantially lower the cost of physiotherapyâwithout sacrificing the individualized recommendations offered by specialists. This is precisely the creative capacity that we, as inventors, must develop so that the evolution of essential technologies across various industries can be harnessed to create products that greatly benefit society.Â
In general, technological advances across different industries often have significant applications in other development projects, as evidenced by the example above.Â
At the end of the 19th century, specifically in 1916, discussions began about unmanned aerial vehicles known as âAerial Target.â It was a military solution that, despite the challenges of controlling them in flight, proved useful for training fighter pilots in mid-air shooting exercises. Â
Despite the great progress made with the âAerial Target,â the first drones known in the market did not truly advance until the 1990s. The size and weight of electronic components limited flight capacity. Moreover, without democratized GPS technology, efficient management as we know it today in this type of aircraft was impossible. It seems like it was many years ago, but it wasnât until the 1970s that GPS technology began to be democratized in the military world, and not until the 1990s that it could be used for solutions in other industries outside the military environment. Precisely, this democratization of GPS use and the high level of precision achieved today has been the main trigger for us to enjoy real spectacles led by unmanned aerial vehicles (drones) today.
In addition to developments in electronics, artificial intelligence, and telecommunications, it is essential to keep a close eye on the countless advances related to the composition of new materials.Â
The pressing need to create more environmentally responsible solutions, to replace single-use plastic-derived elements, and to address other general priorities of todayâs society is leading us to very encouraging conclusions. These advancements are evident both in the democratization of new compounds and in adapting them for use in the prototyping industryâa development that is fundamental for reducing the adaptation curve from functional prototypes to final products ready for commercialization.Â
Specifically, at Letâs Prototype we have had access to photosensitive resins with high-temperature resistance and other specific properties that have enabled us to achieve mechanical solutions with tremendous potential to radically transform certain procedures associated with managing waste with a risk of biological contamination in the healthcare sector. This solution helps avoid the use of single-use plastic containers, which represent a significant portion of the contaminants in that industry.Â
Be careful. It is just as dangerous not to stay informed about new discoveries and available technologies as it is to cling too tightly to them. For those of us who love technology and follow advancements so closely, some discoveries can be so exciting that technological progress itself becomes the primary motivation for developing a new product. In these casesâwhich occur more frequently than weâd likeâthe priority isnât to solve an existing market problem in a different way and then build a product and business model around that solution. Instead, the focus shifts to using new technologies, even when it doesnât make sense and simpler methods could achieve the same results. As weâve explained before, innovating just for the sake of innovation isnât very meaningful; everything we do must be grounded in the actual usage and benefits that our customers ultimately experience.Â
Sometimes, the obsession with using a specific technology in a product can become so dangerous that the inventor may be tempted to patent or invest time and money in protecting the intellectual property of a product whose technical and economic viability hasnât been proven.
Copy as if hell didnât exist. Then innovate.
Although it may not be politically correct, you really need to pay close attention to whatâs happening in the market. If you plan to create an innovative product that changes the game and has clear advantages, you must know better than anyone the benchmarks against which youâll be compared in the market.Â
Many inventors fail by treating âover-engineeringâ as a competitive advantage. Over-engineering refers to the phenomenon where inventors and technical teams add extra functionalities and technical complexities to products without any market-driven justification.Â
For example, if weâre designing an electric vehicle for delivering packages inside buildings, the focus should be on driver ergonomics, facilitating user-machine interaction, optimizing the vehicleâs weight, and maximizing its load capacity. Attempting to differentiate with superfluous functionsâsuch as managing vehicle lighting, advanced suspension, modern anti-collision systems, and other technologiesâwill likely add a list of future costs that customers will have to bear, without actually valuing these details as essential.Â
Rather than adding features and falling into the trap of over-engineering, we recommend âdecaffeinatingâ products to expedite the arrival of innovative solutions to the market. Itâs true that innovation is key and provides an advantage, but this only holds when weâre enhancing the functional requirements that are truly essential to the customerâs perception of value.Â
To ensure we have useful information, there are two techniques that tend to provide excellent results: reviewing the background of related patents and analyzing public reviews of competitors. Combining these variables can create a key roadmap for staying focused on what truly matters.Â
The first source of inspiration is yourself. Most of the innovative products we develop in our labs stem from the daily challenges our inventors face. These needs are often met with unorthodoxâand sometimes rudimentaryâmethods, but the reality is that there are alternatives we simply cannot ignore.
For a long time, we worked on developing a network postâa support structure useful for paddle and tennis courts. The innovative goal was to integrate a ball-launching machine into these posts, despite their standardized geometries. This way, clubs purchasing such courts wouldnât just rent them out to teams for leisure play; they could also open their doors to individual players during training sessions, thereby maximizing their revenue.Â
In addition to the challenges related to dimensionsâwhich you can surely imagineâa critical point in the discussion was setting the launch angle of the balls. Among the founders, opinions varied, and the fact is that we couldnât keep increasing the ball launcherâs complexity just to achieve a customizable angle feature based on usersâ preferences.Â
As an exercise, we took on the role of observers at the courts where coaches and players practiced with automatic ball-launching machines. To our surprise, during training sessions the machines were positioned at a fixed point with a specific launch angle. So, rather than adding complexity to the product, we focused on replicating that exact launch angle.Â
It is very common for inventors to efficiently identify unsolved problems. In most cases, they are spot on with their assessment, but creativityâby its very natureâleads them to envision solutions that stray quite far from reality. This all-too-common scenario minimizes a productâs chances of success.
It is not possible to improve a product by turning our backs on existing options, however rudimentary they may seem, nor can we arrive at efficient solutions without experiencing competing products firsthand.Â
Before rushing into investing in a patent whose functionality is unproven, itâs essential to invest in acquiring products that represent an alternative to your solution. Moreover, itâs highly beneficial to test your product in practical experiments with users other than the inventor, as the inventor is often too attached to the idea.Â
Would you like any further adjustments or additional details?
We believe that the most valuable tool for successful inventors is more closely related to their ability to observe than to their ability to create. Observing and documenting existing problems is one of the key skills every entrepreneur should develop. As you read, youâll realize that this is a skill that matures and is honed through techniques that have been democratized in the market. Â
We make a slight distinction between entrepreneurs and inventors. Of course, this distinction is more based on our experience than on any scientific study.Â
Entrepreneurial profiles tend to be more focused on selling productsâthey show less emotional attachment to the idea itself. Their primary goal is to discover unsolved problems in the market and build innovative solutions. In contrast, those who self-identify as inventors are often less willing to see their ideas through; they seek recognition for their inventions, aim to secure patents, and look to profit from the brilliance of their ideas.Â
Unfortunately, in very few cases do inventors manage to profit from their ideas this way. For that reason, we encourage inventors to train as entrepreneurs and shift their perspective. Among those inventors who succeed, weâve observed a much more efficient and profitable business development process.Â
Therefore, inventor, you absolutely must master business techniques and market research methods that allow you to ground your idea and focus your innovation on high-impact solutions. Analyzing user behaviorâas reflected in product reviewsâis an excellent way to start your journey.Â
Do you already have the idea? If you have the idea or have identified the problem to be solved, youâre already one big step ahead. I recommend making a list of keywords that users might use when searching for solutions similar to the product you have in mind.Â
Currently, there are very affordable tools that can help us identify the best-positioned and best-selling products on Amazon based on the search results for these keywords. At Letâs Prototype, we use Helium 10. Imagine how useful that information is: in just a few minutes, youâll have a list of your future competitors, the number of units they sell, and the markets theyâre active in.Â
Once you have this information, focus on the products with the most reviews. You can compile a document containing these reviews in order to use artificial intelligence tools for analysis.Â
Using graphical tools will help you better understand the problem and quantify the innovation opportunities for your product. It is recommended that you draw a function map of the product, separating the fundamental features from the complementary ones (the less critical elements for selling the product). Once you have mapped out the functions, you can identify which features receive the most positive and negative feedback from users. This map will allow you to compile a list of mandatory and necessary functional requirementsâsince they determine the productâs market viabilityâas well as a list of elements that could be improved, categorized into those that are vital and those that do not significantly influence the purchase decision.Â
This newly updated map of functional requirements should be cross-referenced with an updated review of related patents. Keep in mind that we are not just looking to innovate by improving an existing product; we aim to do so in a disruptive way and, in the future, protect our conclusions.Â
The combination of the results from your reviews map and the background patent study will allow you not only to determine what the first version of your product should look likeâin terms of innovative features and corrected flawsâbut also provide you with clear guidance based on the research of other inventors and companies who have faced the same challenge. Â
Letâs see it in an example!Â
Magnetic window cleaning tools have made a remarkable impact in both the European and U.S. markets. According to sales analysis tools, thousands of units are sold daily in the United States. This demonstrates that the problem they solve remains highly relevant, is shared by a vast number of users, and, moreover, these users are willing to pay for a solution.Â
In contrast, when analyzing the reviews of the leading vendors, we see that they accumulate thousands of complaints, tarnishing the brand image of the vast majority. Over 90% of these complaints focus on either the physical effort required to move the device across the glass or its inadequate ability to adhere to the surface. This information reveals that these tools lack a system that allows users to customize the adhesion levels based on the thickness and characteristics of the glass they are intended for.Â
Before we worry about geometry, aesthetics, packaging, size, or estimated logistics costs, we have a major challenge to address: demonstrating the technical feasibility of a mechanism that allows us to adjust the adhesion levels between the toolâs components, so that it can be used effectively on any type of glass. Â
Following the recommendations above, this conclusion or innovation objective should be carried over into patent records. The goal is to identifyâand, if necessary, studyâthe alternatives that other inventors or companies have protected, as well as the outcomes achieved with these methods.Â
The combination of information obtained from both sources will allow us to create a very well-defined innovation plan, as well as determine the feasibility of filing a future patentâone whose innovative claim would be precisely the capability for customization.Â
Chapter IV: From Traces to Invention â The Study of Prior Art