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Innovation is a word that gets thrown around a lot, but it’s not always clear what innovation means. It can be used to refer to anything from introducing new products or services to creating a better way of doing something. It can also refer to the process of developing new ideas and turning them into reality. The goal of innovation is always improvement—either for the user or for the company as a whole. If you want your business to stand out in today's competitive marketplace, you need to think creatively about how you can improve your products and services so they meet customer needs better than other companies do theirs. What is Innovation?Innovation is the process of introducing new ideas, products, and services. It can come from anywhere, and it can be big or small. Innovation requires an open mind and a willingness to take risks—you never know what might be on the other side! Oftentimes, innovation is linked to commercialization with something new. A simple way to understand is with the equation: Innovation = Invention + Commercialization/Implementation. Another term you might have come across is Design Innovation. For this article, we'll treat them the same way to keep things simple. You can check out our What is Design Innovation article to know more. Innovation is an important tool for driving growth.Innovation is an important tool for driving growth. Innovation is a key driver of economic growth, as new ideas and products can lead to increased productivity and efficiency. Therefore, organizations must innovate in order to survive in today’s business environment. Innovation is an organizational process that leads to the development of new ideas or initiatives (e.g., products or services) that meet customer needs better than existing offerings do. The end result can be either incremental improvement on an existing product or service. It can also result in radical changes that create new markets and industries altogether. Even though we love hearing about disruptive innovations, most innovations out there are incremental.  Innovation is about more than just invention.Innovation is about more than just invention. Innovation is a system that must be cultivated and fostered, with corporate support and buy-in across the entire enterprise. This includes a willingness to invest in research and development (R&D) activities to promote creativity in both individual employees and teams, as well as to take risks when necessary. Innovation also includes the commercialization of inventions—the process by which an idea becomes a product or service useful for society at large. Many different frameworks, tools, and approaches can help in generating relevant innovation. You can explore some of them on our Design Innovation Frameworks and Tools page. Innovation can be a business's most valuable asset.Innovation is a business’s most valuable asset. It is the main ingredient for success in an increasingly competitive global economy and can be considered a long-term strategy for sustainable growth. It is a critical component of your company’s strategy because it allows you to differentiate yourself from other companies, gain a competitive advantage, and create new opportunities for growth. Innovation is a system that must be cultivated and fostered.Innovation is a system that must be cultivated and fostered, with corporate support and buy-in across the entire enterprise. It’s not a project, it’s not just an event—it’s a culture. Innovation is a mindset, not a project; it's an approach to problem-solving rather than just another solution to the same old problems. Innovation isn't something you do once or twice; it's part of your way of life at work every day (and night). Innovate or die.You might have heard the phrase 'innovate or die' before. Does that hold true? Innovation is critical to a company’s survival in today’s business environment. The pace of change is accelerating, and customers have more choices than ever before. If you don’t innovate, you will be overtaken by others who do. Innovation isn't just about products or services—it's about how we work together, what we learn from our customers and each other, the way we collaborate on innovation projects across the organization, how we share our knowledge with the world, even how we use data analytics to improve our processes and productivity. A great example of innovation at work in today’s economy comes from Airbnb's approach to customer service: Rather than having customer service representatives answer generic questions over email or chatbots respond with canned responses whenever someone has an issue with their site technology (which happens frequently), Airbnb hires people who are experts at solving specific problems for each type of traveler so they can resolve issues quickly without requiring the assistance of someone else. Innovation is key to survival in today’s business environment. Innovation is the engine of growth, and it's a necessity for survival in today’s competitive landscape. Innovation is a must-have for any company hoping to stay relevant in the modern economy.  Why is innovation important?Innovation is the key to success, and it helps us solve problems, be more creative, and be more efficient. When it comes to innovation, there are many different approaches that you can take, but one thing is clear: the most successful innovative companies have a purpose beyond making money. They have a passion for what they do, they care about their customers, and they believe in themselves and their team members. Innovation is about solving real problems for real people with real needs—and being proud of your achievements, as well as being willing to learn from mistakes along the way. Innovation is not about making things pretty or building the biggest company in your industry, it’s about making them effective and relevant to your shareholders. Innovation is important because it allows us to solve any kind of problem, face any kind of challenge, and address any kind of issue in the future. In today's world where we have so many problems and challenges, innovation is extremely important. Innovation can be small or large; it can be transformative or incremental—but it will always have an impact on society and the way we live our lives. This is especially the case as we are facing a very uncertain future. ConclusionInnovation is one of the most powerful tools in business today. It can help you differentiate yourself from competitors, build a competitive advantage, and drive growth. It’s also important to remember that innovation isn’t just about inventing something new—it involves everything from refining processes to changing how we think about customers and their needs. In short, innovation is an essential part of any company’s success. If you would like to have a conversation about design innovation and its different processes, make sure to drop us a line. You can also sign up for our mailing list to get the latest innovation insights. Just write your name and email on the little form you will find on the upper right part of this page.
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Imagine you need to create two objects with slight differences. One way is to create each of them from scratch. But this will be time-consuming and tedious as only a few adjustments to one object can result in the other one. This will also result in multiple files, which will get harder to manage as the number of objects increases. In a previous post, we addressed how you can create design configurations using Excel Design Table to address this situation.  Here, we will talk about how SOLIDWORKS configurations can rescue with a more direct way to create configurations. SOLIDWORKS allows you to create multiple variations of a model. Different configurations can be created by changing dimensions, suppressing features, etc. As these configurations are in a single file, organizing them also becomes easy. In this article, we will explore how you can speed up your 3D modeling by creating multiple variations of your design by creating configurations manually. How to Create Configurations?Imagine that you designed a phone for a client. Now they want to know how adding camera lenses and flashlights will affect the aesthetics. You are expected to share a few variations by playing around with shapes. This is where you utilize your knowledge of configurations. Following is the phone model:  Go to ConfigurationManager > right-click on part/assembly name > select “Add Configuration”. In propertymanager, you can specify the name and description of the new configuration.  When it’s created, go to the FeatureManager Design Tree to change dimensions and/or suppress or unsuppress features. While changing the dimension, you can specify if you want the change to be reflected in the current configuration, specific configurations, or all configurations.  You can add and suppress multiple features in each configuration. In the image below, another secondary camera is added by using the linear pattern.  You can go back to your ConfigurationManager, add, and adjust another configuration. In the image below, the secondary camera previously added is suppressed, and a straight slot is added to represent the flashlight in a new configuration.  Before you conclude your design, it’s a good practice to double-check if all your configurations are as you expect them to be. Go to the ConfigurationManager to view the list of added configurations. Double-click on the configuration that you want to activate, and that’s it! You have successfully created multiple versions of the model by manually creating configurations.  Using this knowledge, you can easily create a family of similar objects without the hassle of creating them individually. Will you be using configurations to ease your design process? Let us know in the comment section. If you want to learn more advanced topics like this, check out the professional-level SOLIDWORKS program at the TforDesign School. You will get access to top-notch content and experts supporting your learning journey.  by Mohsina ZafarMohsina is a Mechatronics engineer who is passionate about 3D design and artificial intelligence. She specializes in SOLIDWORKS 3D CAD and loves to help students solve their SOLIDWORKS problems.
LinkedIn: https://www.linkedin.com/in/mohsina-zafar/ Let's start with an into3D printing is the process of creating a three-dimensional object from a digital file. It works by melting or solidifying plastic or other materials and laying down successive layers to create an object. 3D printing has become one of the most popular technologies in product design today, with more and more designers using it for everything from concept models to final prototype production. This article explores how 3D printing can work for your design workflow and some of the challenges you might face along the way. What is 3D printing?3D printing is a process of making three-dimensional solid objects from a digital file. 3D printing or additive manufacturing (AM) technology has been around since the 1980s. Since then, the 3D printing market size has been growing while adding lots of value to many businesses. However, it only recently became affordable for home and business use. 3D printing is also known as Additive Manufacturing (AM) or Rapid Prototyping. An AM machine can print an object by building it up in layers based on the design you created in your CAD program, often using plastic materials that are melted and then cooled to create the final product. The 3D printer builds up each layer by adding material until the object is complete.  Product design workflow with 3D printing3D printing is a tool, not a solution. It’s important to remember that 3D printing is just one component of product design, and it will never be able to solve every problem in your workflow. 3D printing can help you:
Benefits of 3D printing in product design3D printing offers a number of benefits in product design.
 Challenges of 3D printing in product designDespite the hype, 3D printing is not a cure-all for all design problems. In fact, it is often not an appropriate solution for even the most fundamental aspects of product design.
Role of 3D printing in the product development process3D printing is an important technology in the product development process. Because of its speed, accuracy, and affordability, 3D printing is used at any stage of the design process. Design teams use 3D printing to validate ideas and concepts early on in the design process. This saves time and money by helping designers avoid costly rework later on in the development cycle. The first stage where 3D printing can be applied is during initial prototyping. Prototypes are often printed as fast as possible so that they can be evaluated by users or other stakeholders as soon as possible. These prototypes are typically not intended for mass production but rather serve as a proof of concept or idea validation tool that helps designers decide if their current direction is heading towards something worth pursuing further. The benefit of using 3D printing technologies is that it allows you to produce multiple iterations quickly without having to wait for molds or tooling, which often takes months before being produced in metal or plastic components!  Product designers are using more and more advanced technologies to develop innovative products for the global market.3D printing is a fast and efficient process. Designers can create, prototype, and test their products in as little as a day. This technology has been used to produce everything from intricate medical devices to custom-made shoes for astronauts on the International Space Station. Product designers often use 3D printing to create prototypes of new products or make small changes to existing ones. Prototypes help them test the functionality of their designs before they go into full production, which saves time and money because there is no need for large-scale manufacturing until the design is finalized. 3D printing also allows companies to design unique items that aren't available through traditional manufacturing methods, such as injection molding or casting (the process by which metal or plastic parts are created by pouring liquid material into a mold).  Let's wrap up!3D printing is becoming more and more popular as a tool for product design. In this article, we discussed the benefits of using 3D printing in product design and outlined some of the challenges that designers face when using this technology for their projects. We also talked about how 3D printing can help designers create prototypes faster than ever before!
Now that you have an idea of the great value 3D printing can bring you, you should consider diving deeper into exploring what the technology is all about and exploring all the values it can bring you. Luckily, we have a comprehensive program made just for that: 3D Printing Opportunities and Applications. Make sure to check it out, we are looking forward to seeing you there. Over the last few months, we have been working on launching Asteria, a new brand in the tea lifestyle space. We put together a small team and started working on designing and building both a brand and our first product, Explorer 1.0. When building the brand, we played with colors, built prototypes, and dealt with manufacturing. We had fun, got into stressful times, and learned a lot. Here are three little random lessons we’ll keep in mind. 1- Prototype, Talk to People, but don’t Expect them to do Your JobFirst, let us clarify that virtual prototypes of pictures and 3D models are great. However, they are by no means a replacement for physical prototypes. Strive to end up with physical prototypes and have other people outside your team interact with them. Then, observe, and get feedback from those people. This is all obvious, right? Here are the little things to watch out from:
 During those interactions, know their duty and your job. Their duty is to provide personal insights from their perspectives and situations. They are not there to suggest solutions to the problems you are trying to solve, that’s your job. 2- Colors and Coloring StandardsThis one might be a little obvious to some, a little hidden to others. When building a brand that might end with physical products, you’ll need to pick your coloring system carefully, especially if you are keen on keeping consistent branding. There are multiple coloring systems out there. Let’s go over some major ones:
 CMYK and Pantone have less variety of colors but are more viable for the physical world. So, a good approach is to start there. You will most likely be able to find identical colors in HEX and RBG after. Also, pick your brand colors out of official colors prints, not screens. The colors might already look slightly different when dealing with different printers/ printing service providers. Those differences might be because of the product’s materials or the different machines/techniques used to do the coloring. However, you don’t want to be subjected to more variance because one manufacturer has less flexibility than another due to your coloring codes. Suppose you use the HEX system to choose your brand colors. In that case, there is a higher likelihood that you will not be able to replicate the exact color of physical objects. 3- Work with Your ManufacturersKnowing how things are made from a manufacturing perspective is a good idea. However, even with that knowledge, always ask for your manufacturer’s opinions. Your success of the manufacturer’s best interest as this means you will be more likely to return for more of their service. This is not to mention that they have a reputation to protect. Many people overestimate the knowledge they need to have to communicate with manufacturers. In reality, most manufacturers don’t expect you to be an expert in their fields, which is why they often have engineers to help you manufacture your design. This includes suggesting ways to make your design more manufacturable.  Different manufacturers are often specialized in one or two things. For example, a box manufacturer will likely be able to work from the box sketches you have on a napkin because that’s all they do. A prototyping facility that does 3D printing would tell you the parts of your design that are not possible to make and likely provide some recommendations to tackle those issues. Again, it is helpful if you know how manufacturing works so you can save tons of valuable design time, but keep in mind that manufacturers are often there to help. Also, always contact more than one manufacturer, check on different qualities and compare the different customer support, qualities, and prices you can get. If you have the time and money, get a manufacturing prototype for your final designs well. Here you have it, those are three random little lessons we got to learn more of in our journey to build Asteria. Would you like us to share more practical lessons? Let me know in the comment below. Also, don’t forget to share your experiences and things to watch out for when designing a new product. If you would like us to share the whole Asteria building experience, let us know in the comments. Finally, if you are looking for help to build your own brand, drop us a line. We are here to help.  By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ Imagine you need to create two or more objects with slight differences. One way is to create each of them from scratch. But this will be time-consuming and tedious as only a few adjustments to one object can result in the other one. This will also result in multiple files, which will get harder to manage as the number of objects increases.  This is where SOLIDWORKS configurations come to the rescue. SOLIDWORKS allows you to create multiple variations of a model. Different configurations can be created by changing dimensions, suppressing features, etc. As these configurations are in a single file, organizing them also becomes easy. In this article, we will explore how you can speed up your 3D modeling by creating multiple variations of your design using a Microsoft excel design table. What is an Excel Design Table?Design table is an Excel spreadsheet that is embedded in the SolidWorks environment. Entries of this table control model variations. Imagine that you designed a phone for a client. Now they want to know which position of camera lenses will work best for design and functionality. You are expected to share a few variations. This is where you utilize your knowledge of design tables. Following is the phone model: For convenience, start by renaming the dimensions and features based on what they represent. This makes it easier for you to refer to them while working on the design table. Double-click on the dimensions and features to rename them.  How to Create a Design Table?To create and access Design Tables, you need to have MS Excel installed on your system. To create a Design Table, go to Insert > Tables > Excel Design Table. In the Design Table PropertyManager, you have the following options:
 Use this design table to define different configurations. You can start changing dimension values/suppression states as per your design requirements. Once you’re done, click outside the table, and you will get a pop-up showing the newly created configurations. Go to the ConfigurationManager to view the list of added configurations. By default, any part modeled in SOLIDWORKS is set as the default configuration.  Double-click on the configuration that you want to activate, and that’s it! You have successfully created multiple versions of the default model using an excel design table.  Now using this knowledge, you can easily create families of similar objects without going through the hassle of creating them individually. Will you be using Design Tables to ease your design process? Let us know in the comment section. If you want to learn more advanced topics like this, check out the professional-level SOLIDWORKS program at the TforDesign School. You will get access to top-notch content and experts supporting your learning journey. By Mohsina ZafarMohsina is a Mechatronics engineer who is passionate about 3D design and artificial intelligence. She specializes in SOLIDWORKS 3D CAD and loves to help students solve their SOLIDWORKS problems.
LinkedIn: https://www.linkedin.com/in/mohsina-zafar/ If you are ever thinking about designing or building any product, you’ll have to build a prototype. So, what are the different types of prototypes for physical products? Let us talk about this here. In a broad sense, a prototype is whatever can make your idea more tangible. A prototype can make your idea feel more real, which can help you gather more support to bring it to life. Prototypes can help you develop, test, and improve your products. Possibilities are that you CAN NOT develop a good product without Prototyping.  There are three major types of prototypes out there. Each type serves a different purpose. So, let us explore those first. Then talk about how to look at them practically. The three types are Esthetic prototypes, Functional prototypes, and Manufacturing prototypes. You might hear people refer to them with different names, which is okay. In this article, we will focus on the idea behind each type.
A prototype is whatever can make your idea more tangible. A prototype can make your idea feel more real, which can help you gather more support to bring it to life. Those are the classical types of physical prototypes. On paper, we often think about them as esthetic, functional, or manufacturing prototypes. In practice, your prototypes might be somewhere in between. So, it might be better to consider those categories as a spectrum rather than fix types. Your prototypes can then fall somewhere in between. You will most likely move closer to the manufacturing prototype as you progress in your product development process.  Keeping those different types and purposes in mind when planning your prototypes is essential. This will help you build more precise plans for your prototypes and make the prototyping conversation easier with your teammates and other stakeholders. So, here you have it, those were the different types of physical prototypes you would most likely engage with. Even though the above classification might be more relevant to physical prototypes, prototyping practices have expanded with the rise of the service economy and digital products. Would you like another article just on those expansions? Let us know in the comments below. Back to you now, what are your thoughts on Prototyping, and how are your experiences with it? Were you familiar with the types of prototypes we mentioned here? We would love to hear your thoughts in the comments below. By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ Coming up with 'ideas' is sometimes a difficult task as it can be too abstract and lack structure. To make this easier, let us look at eight different ways or methods you can use to generate innovations with market potential quickly. 1. Find an alternative method to accomplish what an existing innovation accomplishes: The fact that a company or a firm started to produce a product that addresses a NEED can indicate that fulfilling that NEED is a viable opportunity. This is as if the other company has identified the location of a hidden treasure to you. Coming up with other innovations that would satisfy that NEED can yield a great opportunity.  2. Follow what you like: list your passions and observe how technologies evolve around you. Then look for innovative opportunities that would keep you excited and happy. There is a good possibility if this passion got you super excited, there are many out there who can be excited about the same thing. 3. Tackle what annoys you: take another look at your daily life and see what annoys you. Do you get annoyed because of how the flour is being packaged? Do the methods available to find home-service providers annoy you? How about you spend time resolving those issues and make your life easier? There is a good possibility that you can also make other people’s life easier as well. 4. Provide a better-quality commodity (and make it more expensive): In other words, make an existing product or service more premium. Go to the market and find all the inexpensive commodities. Those have been commodities for long enough that you will find it difficult to distinguish the different brands as they all look similar with about the same price. Then, consider providing a deluxe version. Many customers might be willing to pay extra for better packaging or better quality. 5. Make it cheaper: what are products or services that are considered to be premium? Can you provide a similar service or product at a considerably lower price? For example, have you noticed that a premium wireless keyboard costs at least a hundred dollars? Can you make it for fifty? This does not have to be in tech. Many players in the food and beverage industry adopt this approach, too. For example, you might notice that Sushi in your city or country is relatively expensive? Can you create an alternative experience that can be more affordable and still maintain good quality?  6. Move something from Industry-level to Consumer-level: have you noticed that some products are only available at an industrial level where only companies enjoy such products at a high cost? Can you make that product cheaper for home users or small companies with similar features? For example, 3D Printing has long been available for industries for about four decades. However, this luxury has become available to ordinary people in the last decade, giving rise to an industry worth more than half a billion US Dollars. In this, we are talking about consumer-level 3D printers. 7. Follow New Trends: what changes in technology, culture, and lifestyle happen around you? Are people in your community suddenly started to consider their personal health more? Can you use that trend to produce new products or provide new services? What new products can you provide given the trend of mobile technology? The Internet of Things? Blockchain? Web 3.0? NFTs? etc? 8. Manipulate existing attributes of a product: what attributes do marketers give to smartphones? Size, weight, battery life, screen display, processing power, etc. Now, which of those attributes can be eliminated, reduced, or raised above expectations? What new attributes can be introduced into the smartphone industry? Manipulating those attributes can quickly generate new products and services that serve a more specific or more general audience which can be an innovation of good market potential.  Here you go, those are eight simple methods to develop innovations with market potential quickly. Keep in mind they are best used as inspirations. You can use them to guide or spark new conversations within your organization, community, or network. So, they are not absolute methods. Carrying out any specific innovation would still require you lots of work at many different levels. Back to you, which of the methods resonate most with you? How do you usually think about bringing new ideas? Share your thoughts with us in the comments below. What innovations came to your mind after reading those eight methods? If you are looking to engage with a community of design innovators, join our online Facebook Design Innovation Community. By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ If you are here, you must know about 3D modeling. You could have also had some thoughts about learning how to build 3D models. However, why would you want to learn 3D modeling? Let us talk about this here. I will share my point of view first. Then I would like to hear it from you in the comments where we can have a small discussion. Meet GallonFirst, let me introduce you to Gallon, which you can see in the image below. Gallon was a character we conceived a while ago. If you follow TforDesign, you will surely come across Gallon.  In this blog, we will not talk about how we conceived Gallon. Instead, we will focus more on what happened after we did. After the Gallon character was designed, we made a 3D model of it. Then, we emailed the 3D model to a manufacturing facility. After a few days, we got a box back. Inside that box were little tangible Gallons that we could touch and feel.  Modern Manufacturing and the Making of GallonTo make Gallon, we went on a journey of making. Key elements of this journey were defining the requirements, building and verifying 3D models, then manufacturing. 3D modeling was right at the center of this journey. 3D modeling is growing to be both a virtual prototyping tool and a tool that enables us to make tangible objects. The final manufacturing can happen through different means like a 3D printer you have a home, a machine shop, or through outsourcing like we did in the case of Gallon.  3D modeling is strongly related to manufacturing as manufacturing is becoming more digitalized, with manufacturing machines getting their input by interpreting 3D models. Examples of growing digitalized machines include 3D printers and CNC machines. This makes 3D modeling more essential to modern manufacturing. Thus, we can think of 3D modeling as a superpower. That super is the freedom to make tangible objects. Suppose you have that superpower, congratulations. If not, you can start learning it today. If you are an organization or an individual, you can think of 3D modeling being all about this superpower. It enables the organization to visualize its products, prototype them, and communicate them with manufacturing. This is one big reason why we advocate 3D modeling. How about you? Are you into 3D modeling? What made you start learning the skill? Make sure to let us know in the comments. If you are considering starting learning 3D modeling, you can start with our Intro to 3D Modeling Program, which will build a strong foundation on what 3D modeling is all about. Suppose you want to start directly with learning a 3D modeling software. In that case, you can check out the different online SOLIDWORKS 3D modeling programs we have in the TforDesign School. By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ A few years ago, I was in a classroom around the topic of managing value creation. As part of that, the questions of stakeholders and how to define them were central to the discussion. As an exercise, the leading professor gave us the hypothetical exercise of building a new monument on campus which we had to identify the stakeholders for. Attendants started shouting out different stakeholders, including the students, faculty, funders, visitors, construction workers, engineers, the designing architect, etc. The professor was still looking for one more particular stakeholder she had in mind. I raised my hand and said: “the birds.” My classmates laughed as if I was telling a joke. That was not the sought-after answer, nor was it a rational answer in a room filled with corporate practitioners. The professor finally stated: “The fire department, an important stakeholder that many tend to forget in the early design stages.” While I agree that the fire departments and other emergency services deserve a more central seat on the stakeholder’s table. I also wanted the birds to have an important seat as well. Unfortunately, that did not exist in the human-centered design thinking paradigm. This is even though the existence and thrival of the birds are tied to that of our own. However, what would happen if the birds had a central seat?  Can the birds be major stakeholders in design? Where the Human-Centered Thinking Went ExtremeThe concept of human-centered design brought about tremendous benefits to us in developing better products and services. However, does it mean human convenience is more important than that of other life forms? When the industrial revolution kicked off, many of that period made a mistake assuming that natural resources are unlimited as well as nature’s ability to digest our trash. Arguably that revolution brought about false human independence from nature and formed a tiny seed of a human-centered world. Questioning the Human-Centered Paradigm We have come a long way since the industrial revolution in realizing that natural resources are limited. We also came to understand that we share a finite plant with other life-forms that have existed before us. More importantly, we realized that we could not exist on our own (even if, that might not be an enjoyable life). With this expansion of understanding, we might want to consider expanding our design thinking to match. Adding Life to the Design Innovation DefinitionWe define design innovation as the bringing of innovations that are humanely desirable, technically feasible, and business-ly viable. For too long, we have defined good innovations on what is good for us, human-centered. However, that might have pushed us towards an egocentric obsession with our own well-being, neglecting the system that hosts us.  Our adapted Design Innovation model Over the past decade, there has been a growing trend of organizations looking to minimize their negative environmental footprint. Minimizing is a good start, but the time will soon come when that is no longer enough. After all, minimizing damage is still damage, and putting forward the minimization question means that damage, in principle, is acceptable. Back to our initial question: what would happen if the birds had a central seat at the stakeholder’s table? Minimizing damage will no longer be acceptable. Instead of asking how much damage you are causing, the more acceptable alternative would be asking how much life you are promoting? Re-thinking the Design Innovation Mode With the points above, an alternative model for design innovation would have to answer the following questions:
P.s. We are building a community of people interested in design innovation and related topics using a Facebook group. Join us to connect and explore more on the topic. By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ The term Design Thinking has become a global buzz recently for all the right reasons. This is very different from the first time I gave a speech about the topic in 2013 when very few people heard the term. I hope you have had a chance to experience it through a short workshop already. If not, let us know, and we can organize one for your team and/or organization. If you attended or facilitated one, then let's talk. Not about the workshop, but about what is next!  What to take out of the workshop? One day to learn something new is not much. You were probably introduced to a process and one or two tools that can aid that process. You moved a lot, used sticky notes, laughed, and hopefully had fun while at it. After a fun day, you might go back to your office job and start thinking, what now? Suppose you are not in a leadership position. In that case, you might not have the authority to introduce new processes to the workplace. Was it all a waste? Hopefully, the answer is NO. Focus on the greater goal The idea of Design as a method of problem-solving has a very central idea behind it. It is that we should keep the human at the center of our thinking. All the processes and tools used by design innovators lead to that. Luckily, as humans ourselves, we can relate to each other naturally without processes leading us. So, if nothing else, drop the processes and the tools in your everyday work and start thinking about people as humans beyond the established status quo. If you can sneak in a tool or two, that is great. If not, the mindset of thinking about human needs is most important. In a one-day workshop, this mindset of Design is all you need to get. It is simple and surly within your power to think of our fellow humans as such. Think of chess or checker – It takes time Whether you are looking at the design mindset or applying other design innovation processes, practice makes better (not perfect). You can think about design innovation like all other skills, the more you do it, the better you will get at it. Attending a one-day workshop is a great start. But, there is a huge world out there relating to Design Innovation. A one-day workshop is more like scratching the tip of an iceberg, again just all other fields. If you are going beyond the design mindset to follow up with processes, don’t be a fundamentalist in following them verbatim. Often, that only repels people away from engaging with the process. Instead, always remember that the design mindset is more fundamental to the design processes.  How to infuse design innovation processes into your organization Beyond the design mindset, design innovation methods, tools, and frameworks can greatly accelerate and enhance generating sustainable streams of innovations with higher success chances. The more serious an organization is about design innovation, the more it can include it in its operation. Integrating design innovation processes can be demanding. Thus, having an individual or a team responsible for guiding the innovation process adds considerable value. This could be an internal or external individual or team. A good duty for that person duty is not to generate ideas but rather to guide the organization to innovate with its own mind power. S/he can get familiar enough with the organization to tailor innovation processes that would work for it. S/he can then walk the journey with everyone avoiding common issues that can take place like unintended biases or stagnations. Let us summarize Here are three main points you can take away from this:
By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ The term innovation is has become one of the buzziest terms in the last century. We can hear every product announcement and find it listed on just about any organization's website. If we are outside stakeholders, this can be one more reason to admire that organization. However, employees can have a very different perception, a negative one. This is especially when innovation is being applied to their work practices. In one of my earlier work experiences, I recall my first-hand experience of the despise employees (my colleagues) had for innovation. To us, the popular management term meant confusion and extra work for no apparent reason. The term was overused to a level where no day will pass without sarcastic comments about anything called ‘innovation’.  In an article published by Harvard Business Review, the author presents survey data on knowledge workers' drive to innovation varying between 14 to 28% in the US and Canada. Two economies are ranked 3rd and 16th respectively in the 2021 global innovation index. This is in contrast to a 2010 McKinsey global survey result showing that 84% of executives say ‘innovation is extremely very important to their companies’. The term 'innovation' is not bad in itself. In fact, it is easy to agree on how vital and central innovation is to both survive and thrive. However, applying and implementing innovations has been misdone, giving it a negative connotation internally in many organizations. A big reason for that is that innovations are developed without the active participation of employees. Thus, it ends up being viewed as direct orders masked as innovations. This is especially the case when the new practice involves employees like new HR policies or new work practices. 84% of executives say ‘innovation is extremely very important to their companies’.  Moving Forward:What is often missing is the deep involvement of employees in the whole innovation process. At the heart of applying any innovation to an organization are employees who are directly affected by it. As obvious as this sounds, having that thought applied to generate innovations is not as obvious. For an innovation to be employee-accepted, we must look toward our employees as major stakeholders and their input and drive to generate and shape innovations starting for the early stages. Only then can we hope for innovations that are liked and not forced. We would love to have a chat about supporting the innovation system within your organization. Feel free to get in touch to schedule a call to chat with us. What is often missing is the deep involvement of employees in the whole innovation process that will impact their work practices. Join the TforDesign Design Innovation CommunityWe are building a global community of professionals striving to design better innovations and better innovative environments. Join the TforDesign Design Innovation Community to learn more. By Tayseer AlmattarTayseer is a passionate designer and educator. He believes that innovation potential can be grown and natured within organizations with relevant design innovation processes.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ "Interesting" is the word we often hear when telling others about our innovative ideas. Unfortunately, this is mostly the last thing we hear about it before it soon dissolves in the busyness of both working and personal lives. Unless formed, shaped, and colored, ideas by themselves are defenseless and mostly worthless. How can an idea be more than just "interesting"? Unless formed, shaped, and colored, ideas by themselves are defenseless and mostly worthless. One way to get past the "interesting" point and get more attention is to make your audience 'feel' the idea. This is guaranteed to give you more of their attention for a longer time. Prototyping is the best way to have your audience feel your idea. In a broad sense, a prototype is whatever can give your idea a visible/tangible form and/or feeling. This can be with simple drawings, 3D printed or virtual models, videos, interface mock-up, etc. Depending on your situation, a prototype does not have to be functional or attractive. However, building a prototype does require more investment and effort than to just speak of the idea.  More Reasons for Why Prototyping:Here are some reasons that can partially illustrate the power of prototypes:
Everything is Prototype-able:Prototyping is becoming an essential and central practice working in design innovation. The shapes and forms of the prototypes can be very different depending on the field and purpose of the prototype. The commonality is that everything is prototype-able. For example, a user interface can be prototyped with a series of hand sketches on paper, an interactive dashboard can be prototyped with linked PowerPoints slides, a video advertisement can be prototyped with a cellphone camera, a physical product can be prototyped with 3D printing, etc. With that, it would be worth it to have rapid prototyping as a key part of your innovation processes.  In an earlier blog post, we discussed 3D Printing and product design and how prototyping can play an important role in the field. You can also check out the 3D Printing Opportunities and Applications course that dives even deeper into 3D printing for prototyping and other fields. Do you use prototyping to support your ideas? What types of prototypes do you often build, and for what reasons? Share your thoughts in the comments section. By Tayseer Almattar, TforDesign FounderTayseer is the founder of TforDesign. He has a passion for learning design and making all learning digestible and exciting.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ If you are reading this, you probably know that a SOLIDWORKS license is expensive! A standard commercial license of the 3D CAD tool might cost USD 2000+ / year. The professional and premium versions would cost even more going to USD 8,000/year. The cost makes lots of sense if you are a business taking advantage of it commercially, as the software can generate much more value than that. However, suppose you are planning to use SOLIDWORKS for your own side projects at home or just looking to access the software for learning. In those cases, USD 2000+ is too much to be considered reasonable. So, let us look at the alternative, more affordable options going from the more general to the more specific. Specifically, we'll talk about the maker license, the EAA license, and the student license. For each, we will briefly address what it includes, how much it costs, how to get it, and the major limitations that come with it. Maker/Hobbyist LicenseSOLIDWORKS announced the maker license in 2021 for USD 99/year. It includes the primary standard 3D CAD tool that you will most likely use for maker or hobbyist projects. The maker license is the most generic version that is open to many regardless of their backgrounds.
 Experimental Aircraft Association (EAA) Membership BenefitEAA members get a 50% discount to access the SOLIDWORKS for makers license originally at USD 99/year. The trick is that you will need to be a member of the association, which costs USD 40/year. Thus, a membership and SOLIDWORKS cost a total of 89.5/year. So, if you are interested in aviation, this would be a great option as you will also access many related resources. If not, this longer path can save you ten bucks.
 Student LicenseStudents that are enrolled in academic institutions have their own license. The student version is equivalent to the Premium commercial version, which includes more features than the maker license. Those include simulation standard, CAM tools, PV 360 for rendering, and more.
 So, here you have it. Those are your main options to easily access SOLIDWORKS if you are an individual and looking to use the software for personal applications. This also includes accessing the software to learn it and gain professional certifications. Other than the major options listed above. Some other organizations might be able to provide free access to the software to their members. Those can include private and public organizations like universities. There is no comprehensive list for those. However, so it's something you will mostly like to find out about with the perks. So, suppose you are a member of an organization that is affiliated with SOLIDWORKS, you should ask around in case you can access the software through them. Now that you have access to the software, it is crucial that you have the skills to capitalize on it as quickly as possible. For that, you can check out the bundle of online SOLIDWORKS 3D modeling programs at the TforDesign School.  By Tayseer Almattar, TforDesign FounderTayseer is the founder of TforDesign. He has a passion for learning design and making all learning digestible and exciting.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ 3D models need to be moved around and oriented to do various tasks like viewing them properly, adding features, taking measurements, etc. Therefore, proper model orientation is essential and should be easily accessible. This is where Orientation Dialogue Box comes to our help which can be accessed by simply pressing Space Bar or from the top of the canvas. It lets us select from standard views like Front, Right, Top, Isometric views, activate View Selector, and use viewports. Most of the time, we need more orientations for ease of navigation. For example, maybe we need a close-up on a cut, or an angle not included in the default views. For this, we can create Custom Views  Creating Custom ViewsCustom views are views that are added and saved in the Orientation Dialogue Box as per our needs. They come in handy when we want a specific orientation and zoom level of the model at any time. To create a custom view, click on the New View icon in the Orientation Dialogue Box (as shown in the below image) > Name the view in Named View pop-up > Click Ok. This will capture the current orientation and zoom level of the model. The named view is now added in the Orientation Dialogue Box and can be accessed by pressing the space bar and selecting it from the list.  Adding a Custom View to all SOLIDWORKS DocumentsRecreating the same custom view orientations in each SOLIDWORKS document is time-consuming. To save time, you have to save them. Open Orientation Dialogue Box, hover over a custom view from the list and click on the Save icon. This will make these views available for all the parts, assemblies, and drawings. If you are looking to learn SOLIDWORKS with a bundle of learning support services, make sure to check out the TforDesign school online SOLIDWORKS 3D modeling courses.  By Mohsina Zafar, Technical Lead at TforDesignMohsina is a Mechatronics engineer who is passionate about 3D design and artificial intelligence. She specializes in SOLIDWORKS 3D CAD and loves to help students solve their SOLIDWORKS problems.
LinkedIn: https://www.linkedin.com/in/mohsina-zafar/ In this post, we will try to make sense of what is finite element analysis (FEA) and how it works without getting into talking about equations or much technical terms. SOLIDWORKS Simulation (and other software) use FEA to solve designs. Thus, knowing a bit of background about FEA will help us understand many of the settings to optimize our results. To explain FEA in simple terms, we can try simplifying FEA with a story the progression of the elements from one dimension to 3 dimensions. One Dimensional Beams:It all started with the classic problem of a beam. The beam is fixed on a wall from one end, and there is a force on the other end. Experts came together and made up an equation to find the deflection at the outer end. What the equation looked like is none of our concern for now, so we can just call it THE EQUATION.  Here is what concerns us: To be able to calculate the deflection on the outer end, we had to know beforehand what the deflection is on the inner end connected to the wall. In this classic beam case, we know that the inner end is fixed to a wall. Thus, there is no deflection, or the deflection is zero. With that known to us, we can apply the equation and find the deflection.  Now the question is: What if we want to know the defection in the middle of the beam? To find this, we can split the beam into two and redo the whole calculation. We can start with the first half, in one end we know the deflection is zero, so we can apply THE EQUATION to find the deflection at the end of the first half. Then, we can move to the second half and apply the same equation. Again, we already know the deflection in one end because we just calculated It , then the equation will give us the other end. Finite Element Analysis is dividing a structure into a smaller, finite number of elements which we can analyze one by one, then putting all those elements together gives us an understanding of the whole structure.  What if we want to know the deflection in every quarter of the beam? In this case, we can simply redo the same procedure the same way, splitting the beam into four parts. We can go the same approach every tenth of the beam, every twentieth, and so on.  Now let us stop here for a second to name things, we can all those little beam divisions: ELEMENTS,, at the end of each element, there are points that we can all NODES.  This approach we just used or described in analyzing our beam is Finite Element Analysis. It is dividing a structure into a smaller, finite number of elements which we can analyze one by one, then putting all those elements together gives us an understanding of the whole structure. Two Dimensional Shells / Surfaces:Just now, we were looking at a straight beam, which we were able to split into straight little elements of lines and nodes. The next step would be to go to two dimensions. We can call those shells or sheets. A shell is anything that is relatively thin and of uniform thickness. Those include the common structures of sheet metals.  Figure 1. Stools made out of sheet metals Sheet metals can take many different shapes and forms. Also, unlike one-dimensional beams, there is no ‘THE EQUATION’ that to solve for deflections on complex formations. To go around this, we can simply split the whole sheet into many nodes and lines. However, now that we are working in 2 dimensions, our elements can’t be a line. So, we can switch the elements into something like a triangle.  Now, we can split our sheet into little triangular elements. Each has three little lines and three nodes. Just like how we started with beams, we must know the actual solution values somewhere in the design because it is fixed or restrained to something else. From there, we solve for each little line and each little element until we can solve for the whole model. Basically, we transformed the whole shell into many small one-dimensional beams. The collection of all the elements together is called Mesh. The more elements we have, the more accurate our results will be, but also the more calculations we will have to do. 3-Dimensional Solid Objects:At this point, we can jump into 3 Dimensional objects. which can be complex-looking turbines, gears, casings, consumer products, etc. We can refer to those as SOLIDS.  Many of the artifacts around us have irregular shapes As solids can take many different shapes and forms, there is no ‘THE EQUATION’ for all kinds of irregular shapes. However, that is not problem because we can just split the whole thing into small elements to end up with a bunch of nodes and lines. Our element shape this time will have to be 3D dimensional shape, like a Tetrahedral, which is the shape of elements used in a software like SOLIDWORKS.  As always, with one location of the design is known to us, so we can use THE EQUATION to solve what is happening in the next nodes, and move from there to the rest of the model. Generally talking, the more elements we have, the more nodes and lines we have, the more accurate our results can be, and the more work we will have to do to solve it.  Summery:In a nutshell, Finite Element Analysis is the idea of splitting any model into smaller elements that we can solved one at a time, then putting all those elements together can give us a good understanding of what is happening the whole model. The power of FEA is that it enables us to understand and simulate how a specific design reacts to different conditions regardless of how complex the design is. Throughout this post, we gave a bit of focus to analyzing deflections. However, the same approach applies to analyzing and understanding many other parameters like stress distribution, the factor of safety distribution, etc. This post does not represent factual background on Finite Element Analysis and should not be taken as such. Rather, you can take it as a way to simplify our understanding of what Finite Element Analysis is all about. If you are looking to have a dive in the use of FEA-based simulation tool like SOLIDWORKS simulation, you can check out SOLIDWORKS Simulation Associate course.  By Tayseer Almattar, TforDesign FounderTayseer is the founder of TforDesign. He has a passion for learning design and making all learning digestible and exciting.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ When asking about FEA simulations, you will likely find two groups of people: one calling it straightforward easy and the other calling it complex and challenging. You will also find lots of young people sharing colored images and more experienced people talking equations and strange terms. What is behind all that? [it is not a cross-generational thing, at least I hope] Most of that comes from the introduction of software simulation tools. There is no doubt that Simulation tools, including SOLIDWORKS, Ansys, and others, brought in tremendous benefits and enhancements to simulation. However, they made simulation look super easy. But is it?  Beautiful Simulation Animation So, let us try to break that further down to figure out some of the issues with the simulation software? First, one area to clarify is that most simulation studies are applied by following a similar overall procedure. You can check our previous blog on 8 steps to conducting FEA static studies for more information. Now, we did a simple study, let us talk about the complications. This blog will discuss the meaning behind the results, results verifications, and the overwhelming available options. What do the Results Mean to Start With?Simulation software are famous for their colorful plots, usually ranging from red to blue, and accompanied by numbers. While it is easy to get numbers and plots, the more important question would be: what do those numbers even mean? Von Mises, stresses, strains, the factor of safety, stiffness, etc. More importantly, what do those numbers mean for us specifically in whatever project we are working on? How can they be used to drive/guide meaningful design iterations? Answering those questions would often require more in-depth knowledge and experience on topics that go beyond the apparent software application and into principles of design and mechanics of materials. Verdict:
Getting attractive and colorful plots can be pretty exciting when you start with simulation, but there is often more than meets the eye. How do You Know the Software Gave You Correct Results?Perhaps one frequent and more challenging question you can get working with simulation is: How do you know you got usable/correct results? Simulation software nowadays are very capable; they are also growing rapidly. However, they are by no means a complete, accurate tool. Issues in results can be caused by anything from setting the simulation conditions wrong, software deficiency, to issues with our input to the software. Being able to spot those errors would often require both experience and depth of engineering knowledge. Some methods used to help can range from quickly spotting nonsensical results to benchmarking with hand calculations or other means. Verdict:
All the Options Out There!As simulation tools grow, so is the number of options they provide to help you get optimal results for your usage. Those include more variety in conditions setting, more options in refining the mesh, more plots, etc. Being able to navigate all those options to produce a usable study can range in difficulty according to the complexity of the study. The complexity comes from the number of options and having to understand what each option means in an absolute sense and what the option means to the specific study you are working in. For example, meshing refinement has several options, from setting a global mesh density to auto-adaptive meshing to manually adjusting the mesh in different areas of the design. Knowing about those options is the easy part compared to uniquely applying them to best fit each project. Verdict:
So, is Simulation Easy or Complex?All the writing above might have made you more confused than not. Is simulation easy or complex? The reality is simulation is just like other expanding fields of study. It has a surface, but beneath that exists a great depth. The deeper you go, the more complex things can get. Thus, do not be surprised when you meet people spending 20+ years using simulation and are still learning. While software applications came as great enablers for simulation, they can give some a false sense of knowledge, neglecting the depth of the field. Getting attractive and colorful plots can be pretty exciting when you start with simulation, but there is often more than meets the eye. Should I Learn Simulation?In terms of software application, a structured course can give you the best value for your time. You can check out the TforDesign SOLIDWORKS Simulation Associate course. This will build you a strong foundation in the practical software application using SOLIDWORKS.  Another part is to equip yourself with a theoretical background in Mechanics of Materials and Finite Elements Analysis. Both fields are well established in academia. Thus, browsing academic resources can give you the best value. When pursuing both directions, it is essential to know that growing in the area can take lots of time and patience. Are you a user of simulation tools? How was/is your experience? Let us know in the comment section.  By Tayseer Almattar, TforDesign FounderTayseer is the founder of TforDesign. He has a passion for learning design and making all learning digestible and exciting.
LinkedIn: https://www.linkedin.com/in/tsjmattar/ If you ever wondered how to use the SOLIDWORKS simulation tools to conduct Static Finite Element Analysis, this blog is for you. This blog will explore what Finite Element Analysis Static studies are and how to do them in SOLIDWORKS. What are Static Studies/Analysis Simulations?Static Analysis Simulations is the most common and most basic type of analysis done in computerized tools like SOLIDWORKS Simulation. Another term for it is Static Equilibrium Simulation. They relate to bodies that are in an equilibrium state. In other words, the loads do not constantly change over time. Thus, most of the objects around us on an everyday basis can be simulated using static analysis. Those include chairs, desks, bottles, beam bridges, constructions, etc. To know more about the different types of simulation, why and who should use them, check out our article on What is Finite Element Analysis and why you should use it. |