Wie können Sie Materialien und Fertigung nutzen, um Ihre Karriere im Produktdesign voranzutreiben?

Choosing materials and how you make stuff isn't just about technical details in design. It's like picking the ingredients for a recipe – it affects how good, affordable, eco-friendly, and cool your product turns out. Knowing the nitty-gritty of materials and manufacturing helps you decide wisely, matching what you want to achieve in design with what users want and what sells well. It's like avoiding making your cake too complicated, too simple, or using too many eggs. Understanding this stuff is like having a map; it keeps you from getting lost and wasting things.

In my experience, functionality is the core of product design .. functionality gets delivered through right material ( strength aspects) and right form and shape aspects ( rigidity/ motion/ fit/ flow, etc).. a combination of materials and manufacturing processes gives the designer ample choice to balance the cost-functionality-quality triplet otherwise known as the survival triplet .. form and shape broadly get defined thru a combo of material and manufacturing process .. for instant when one uses polyoxymethylene ( delrin) for a gear, it gives flexibility of a cycloidal shape, self lubricating for frictionless movement and also a high productive injection moulding process ..

Material and manufacturing choices critically impact product cost, quality, and compliance. Material selection affects durability, strength, and cost, influencing long-term expenses and maintenance needs. The manufacturing process determines precision, consistency, and scalability, crucial for mass production. Compliance with industry standards is non-negotiable, especially in sectors like aerospace or medicine. End-use conditions dictate material resilience and manufacturing robustness; for instance, extreme environments require materials with high thermal stability. Efficient material and process choices ensure economic viability and adherence to quality and safety norms.

I was very fortunate to work alongside some amazing designers & engineers early on in my career. They taught me to see a two pronged approach to materials & manufacturing - 1. Discover the limitations & use the constraints to guide your design toward a manufacturable and cost efficient solution, temporarily treating manufacturing & materials as "fixed". 2. Be VERY curious and ask "how might we..?" to the limitations & constraints to discover that what appears "fixed" is actually is quite moveable. Stay hyper curious to win.

In der Beleuchtungsindustrie Tirols ist die Verwendung von Holz ein Beispiel für effektive Materialwahl. Dieses lokale, nachhaltige Material erhöht die emotionale Bindung und integriert regionale Kultur ins Design. Kombiniert mit moderner Technik und traditioneller Handwerkskunst, werden so Produkte geschaffen, die funktional, nachhaltig und kulturell bedeutsam sind.

In my view, a design is termed as successful if it meets the end requirements, with greater efficiency, quality, low cost, caters to all functional needs. Material selection is key factor for developing products. They do not only effect use and function of products, but also contribute to the creation of meaningful product. Selection of suitable materials is very much significant as it contributes to the enhancement of quality, energy (Co2 Emission), time and cost efficiency. On the other hand, good manufacturing helps to optimize manufacturing ease and production cost, given form, fit, and function requirements with high quality. Material selection along with manufacturing gives the designer a strategic choice to design the best product.

Leverage materials and manufacturing expertise by Developing a deep understanding of materials, their properties, and applications. Design with manufacturability in mind, collaborating closely with manufacturing teams to optimize processes. Utilize prototyping and testing for validation. Conduct cost analysis, balancing performance and affordability. Collaborate with cross-functional teams, fostering effective communication. Prioritize environmental sustainability through eco-friendly choices. Commit to continuous learning, staying updated on industry trends. Showcase your expertise through a portfolio highlighting successful projects that integrate materials knowledge, making you a valuable asset in the competitive realm of product design.

Material and manufacturing selection are the fundamentals of any product design. For example, if you are going to design a solar reflector for any commercial or domestic work, we can't select glass mirrors because of their brittleness, bulk, and short lifespan. In that case, we have to go for a stainless steel sheet with a high nickel content, which gives a high reflective index, corrosion resistance, and long service life to the entire product.

Materials and Manufacturing Processes deals with issues that result in better utilization of raw materials and energy, integration of design and manufacturing activities requiring the invention of suitable new manufacturing processes and techniques, unmanned production dependent on efficient and reliable control of various processes including intelligent processing, introduction of new materials in industrial production necessitating new manufacturing process technology

Le choix des matériaux va non seulement influer sur l'image que vous voulez véhiculer, mais aussi sur la qualité du produit que vous voulez réaliser. De plus si l'aspect environnemental devient prépondérant il n'est pas nécessairement toujours utilisé de la bonne manière ni pour les bons objectifs. Mieux vaut une totale traçabilité des matériaux que vous utilisez avec un réelle charte environnementale, que de "potentiels" matériaux dit recyclés qui consommerons plus d'énergie et à la fin rendrons une image non qualitative de votre marque. N'oublions pas que les cartons utilisés en provenance d'Europe sont issus de forêts éco gérées , renouvelées et certifiées (FSC et PEFC). Méfiez vous des marketings spécialisés en Greenwashing.

The right material depends on: Application: What the product does and where it works Loads: How much force and stress the product faces Environment condition: How the product interacts with water, air, chemicals, etc. Cost effective solution: How much the material costs and saves Ease of manufacturing: How easy the material is to make and shape A common example of material selection is the sea ship propeller, which is a rotating device that propels the ship through water. The propeller has to endure high hydrodynamic forces, cavitation, erosion, corrosion, and fatigue. Therefore, the material for the propeller should have high strength, toughness, hardness, and corrosion resistance. Eg. Hastealloy, SS, Nickle - Al alloy, Bronze alloy

Craft your career with the right materials: it's the designer's secret sauce. Choose with precision, like an artist picking the perfect brushstroke. In the world of product design, the right material isn't just a choice; it's your signature on the masterpiece of innovation.

Selection of the material is based on the following: - application of the product. - interface components - working temperature - environment conditions - Durability requirements - end of life requirements. - Manufactuability - Cost Selection can be done by surrogate databases on similarly application, material libraries and standard. Testing is must if we are using any new material. -

Material selection is typically related to the product special considerations and typically the knowledge rests with the subject matter experts. Use the experience of the people around you. Material selection guides are no substitute for real world experience and knowledge in a particular product type. Feel free to challenge with new materials or out of the box choices. However, many have taken the path before you and know much more than a chart and understand the particular application(s).

La elección del material adecuado depende del resultado que se quiera lograr en calidad, vida útil y prestaciones, nicho de mercado al que se apunta, así como también de la ubicación geográfica con respecto a la empresa en la cual se produce, ente otras.

Selecting the right materials for your product is like putting together a great mix of ingredients. You need to think about how they'll work – their strength, durability, flexibility, weight, texture, and color. Also, consider how they'll impact the environment and what feeling they'll give to users. Choosing the right materials isn't just about technical stuff; it's about creating a good experience and making sure your product fits into the bigger picture.

Choosing the right material involves simulating the overall product life cycle and observing not only technical but environmental, economical and social impacts throughout each stage of the product life cycle. Despite specifying the technical requirements like strength, durability, environment resistance, surface finish, electromagnetic properties, costing and manufacturing process, there may be tons of factors affecting your choice of material which in general are not considered by industry experts. In my experience even the source of consumables used in machines being used in the manufacturing process may impact the overall product quality and product itself.

Recent progress in ICME (integrated computational materials engineering) are making it much easier to design and manufacturer materials that combine greater sustainability with cost-effectiveness and manufacturing efficiency. Material’s properties play critical role in product performance. By using ICME on models and software tools, we can put materials at the center of the product design and engineering. By this way, we can remove the need for physical prototyping, and further decreasing the consumption of material. Material selection should be done in such a way that can reduce waste, reduce cost, reduce product weight while ensuring strength and optimize process during manufacturing.

This is vital for product manufacturing. Experimentation via testing of materials is really needed before embarking on prototype and final design production.

Sculpt success in your product design journey: nail the manufacturing process. It's not just about building, but how you build. Choose the right process like a maestro selecting instruments—harmony in creation, efficiency in execution. In the realm of design, the right manufacturing is the key that unlocks career greatness.

Choosing the right manufacturing process involves evaluating factors like production volume, complexity, and cost. The Pugh Matrix can aid in decision-making by comparing various processes. It's essential to match the process with the product's design requirements for optimal results.

When creating toy and game prototypes, for those without 3D design skills, I believe it’s important to request files in a format that can easily be used by others who may help with additional prototypes or manufacturing. Without going too much into this, an STL file is not enough, in my opinion. I would request a STEP file when possible as well as the native file format for applications like Fusion360 and/or Solidworks.

Recently, I designed a unique smartphone case and faced the challenge of choosing the right manufacturing process. Considering factors like design complexity, production volume, and cost, I decided on a hybrid approach: 3D printing for prototyping and injection molding for mass production. This decision perfectly balanced quality, efficiency, and scalability.

In medical device industry, regulations impose a very selected range of materials. It is very important to provide customers with the most appropriate material depending on the intended use of the medical device. As the process can affect the ability of a material to be successful in biocompatibility testings, it is important to determine which one of this process can offer the best way to manufacture parts.

En terme de packaging secondaire, nous avons un large choix de possibilités. Entre les divers types d'impression (offset - numérique - sérigraphie etc..), les ennoblissements possibles (Marquage à Chaud, Gaufrage, Estampage, Vernis etc..). Chaque technique nécessite une expertise, mais l'analyse en amont du décor et les échanges avec le marketing, permettent toujours quand on s'en donne la peine, de trouver des solutions qui puissent tant économiquement qu'environnementalement permettre à un packaging d'être au Top de sa réalisation avec les bons intervenants et les bons matériaux sans altérer l'image de la marque. Il faut parfois juste s'en remettre aux bonnes personnes et en accepter le coût.

Parameters to be taken care of during product design stage considering manufacturing process, Quality & Precision: Ensures accuracy in design and materials. Cost-Efficiency: Minimizes waste and optimizes resources. Scalability & Flexibility: Adapts easily to changing demands. Innovation & Customization: Integrates tech for customization. Compliance & Sustainability: Meets standards while reducing environmental impact. Reliability & Safety: Enhances product reliability and workplace safety. Competitive Edge: Speeds up production and offers uniqueness. Continuous Improvement: Enhances efficiency through feedback.

El proceso de fabricación es uno de los detalles más importantes a considerar al momento de desarrollar un producto . La viabilidad de un producto en gran parte se define en el sistema de producción ya que afecta directamente en costos .

Most effective product design considers big picture instead of focusing solely on one aspect of product design. For examples, many designers/manufacturers focus on maintaining cost down. However, it is not the only factor that should be considered in the design process. For instance, specific tooling process/type may not be feasible from a production perspective. Early issue identification in the process enables designers to ensure manufacturability and sustainability while meeting cost objectives. Apart from this, managing/communicating with supply chain is also one important aspect of manufacturing process.

Choosing the right manufacturing process depends on factors like complexity, size, quantity, and quality of the product. Consider impact on time, cost, efficiency, and reliability of production. Also consider influence on design features, user interaction, and innovation potential. Use tools like prototyping, simulation, or consultation to evaluate and optimize methods.

Communicating material and manufacturing choices is essential in the product design process. Justify and explain choices to stakeholders using sketches, diagrams, models, or specifications. Present decisions clearly and convincingly to ensure understanding and support.

Lavoisier a dit "Rien ne se perd, rien ne se crée, tout se transforme". Le design est un éternel recommencement et si les modes changent elle renaissent toujours. En packaging comme dans la mode, rien ne vaut l'historique de ce qui a été déjà produit pour pouvoir construire de nouveaux packaging innovants et marquants. Conservez tout ce que vous avez fait dans votre carrière et servez vous en de modèle, la solution à votre prochain packaging est certainement un doux mélange de ce que vous avez déjà produit. Pour autant celui-ci sera à nouveau innovant car il sera la concrétisation de plusieurs techniques utilisées séparément.

Effective communication of material and manufacturing choices is vital for collaboration. Employ visual aids like infographics and share detailed specifications. Clearly articulate the reasoning behind decisions, emphasizing how they align with the product's design goals and market demands.

To effectively communicate material and manufacturing choices, consider your audience: For Customers, highlight how chosen materials ensure optimal performance in expected working conditions and enhance mechanical properties. Also, emphasise the material's contribution to aesthetics and the product's overall look and feel. For Regulatory Authorities, focus on compliance, showing how materials and processes align with industry standards. Supporting documents include: Material Certificates, from vendors, confirming quality and specifications. Performance Data, tests as per industry standards, proving material efficacy and safety. This concise communication strategy ensures each stakeholder receives relevant and essential information.

Understand the pros and cons of each alternative and how this impacts manufacturability, performance and product quality. Drawbacks to any of these areas must be justified in relation to the alternative choices.

The framework provided by the ISO 14040 enables an industry standard benchmark, the Life Cycle Analysis "LCA". From material extraction, transport, use, and until end of life of your product, the methodological approach covering its impact "from cradle to grave" helps you to identify and prioritize actions in product design or component sourcing. The impartiality of this ISO framework protects your company from being accused of "greenwashing".

A way to communicate the material choice and get stakeholders acceptance is to benchmark several material by comparing them altogether, weighing pros/cons. Ultimately, the ranking should be a cross functional team effort to ensure all stakeholders are deeply involved into the decision making and reduce risk to dispute the material in the future.

While designing a product for different applications such as consumer market, industrial usage, or aerospace industry; the product looks, feels, and functions are critical. Characteristics such as color, material and finish must be defined and carefully considered to ensure that the product has longevity and is easily acceptable to consumers and end users. Apart from this; during product design, close communication gaps between different product development teams. Effective communication from beginning to end of product design cycle ensures that issues such as material shortages and manufacturability can be addressed quickly. A communication gap in sourcing and procurement will have a domino effect on cost, production, and possibly design.

Communicating Material & Manufacturing Choices: 1. Know Your Audience: Tailor explanations for clients, manufacturers, or investors. 2. Clarity is Key: Use simple language to describe your choices. 3. Visual Tools: Employ sketches, diagrams, and models for better understanding. 4. Rationale: Clearly justify why you chose certain materials and methods. Precise Documentation: Keep detailed specs for consistency and clarity. Highlight Benefits: Emphasize how your choices enhance quality and the user experience. 🌟 Keep it straightforward, engaging, and visually clear for effective communication. 🌟

Telling others why you picked certain materials and how you're making your product is like being a storyteller for your design. Imagine you're explaining your favorite book to friends – you want them to get excited about it too. Whether you're talking to clients, makers, users, or backers, it's important to make your choices crystal clear. It's a bit like showing your friends a map to your favorite places in the book. Tools like sketches, diagrams, and models are like pictures in your story – they help everyone see why your design decisions are awesome. So, tell your design tale in a way that makes everyone want to join the adventure!

Stay curious and reach out to experts whenever you feel your own experience is lacking. Never accept “It’s impossible “ at face value until you’ve at least tried to fully understand and appreciate the problems.

Reading a blogs are not valuable unless you are able to distinguish the good ones from the bad ones. I try to keep up with trend. I have 25-years of experience, and I read all technical documents, articles, and stories. I have found that ASME.org and sites of the same nature, but a varied discipline are great. The same may be said about the best of the industry organizations’ sites (SME, IEEE, etc.). When you are at the level of an OEM or product; These sites become more commercial. I have found information quoted from these sites as the gospel. The is a great machine tools site with wonderful information, same for Automation, etc. There products are used to show advantage, yes, but through education.

Boost your product design career by staying ahead in material and manufacturing trends! Stay curious and open-minded, exploring the latest developments and opportunities. Utilize tools like blogs, podcasts, magazines, and events to learn and network with professionals in the field. Being informed and adaptable is key to success in product design

Restez sans cesse en veille de ce qui se fait (même si vous avez l'impression de l'avoir déjà vu). Arpentez les allées des salons professionnels à la recherche d'une éventuelle nouveauté qui peut se cacher. Mais surtout soyez prescripteurs auprès de ceux qui peuvent faire évoluer les choses en étant source de propositions, même farfelues et n'hésitez pas à mettre en relation les sociétés qui même parfois concurrentes, chacune dans leurs spécificités pourraient contribuer à créer ensemble l'innovation de demain. La concurrence ce n'est pas dépasser l'autre, s'est aussi parfois s'allier pour être meilleur au service d'un marché.

Las tendencias en acabados y materiales son una parte muy importante de la decoración y el diseño de interiores. El diseño busca crear armonía y tranquilidad ya que afecta directamente a nuestro estado de ánimo y cómo nos sentimos. Una forma efectiva de saber las tendencias en las redes sociales es utilizar herramientas de monitoreo específicas. Estas herramientas te permiten realizar un seguimiento de los temas y hashtags populares en tiempo real.

Totalmente de acuerdo! Mantenerse al día con las tendencias en materiales y fabricación no solo enriquece nuestras habilidades en diseño de productos, sino que también nos posiciona como profesionales proactivos y visionarios. La curiosidad y la apertura mental para explorar nuevas posibilidades son claves para la innovación. Utilizar herramientas como blogs, podcasts y eventos nos brinda una ventaja competitiva y oportunidades para establecer conexiones valiosas en el siempre cambiante mundo del diseño. ¡Imprescindible para el éxito en nuestra carrera de marketing y diseño de productos!

Staying informed about trends requires continuous learning. Engage with industry publications, attend conferences, and participate in online forums. Collaborate with professionals to share insights and leverage online platforms to access webinars and courses.

This is basic, you can’t be following same trends for 100 years. One must upgrade and adapt to new technologies and trends. This keeps you in the market always.

Um mit den neuesten Trends in Materialien und Fertigung Schritt zu halten, integrieren wir fortlaufend innovative Ansätze in unser Produktdesign. Durch kontinuierliche Forschung und Kollaborationen mit lokalen Handwerkern und Technologieexperten schaffen wir Beleuchtungsprodukte, die sowohl traditionelle Werte als auch zukunftsorientierte Lösungen vereinen. Dieser Ansatz ermöglicht es uns, immer am Puls der Zeit zu bleiben und unsere Designs kontinuierlich weiterzuentwickeln.

Utilize social media (LinkedIn). Leverage expertise from your team. Explore/read SEOs. Subscribe to publications and journals. Communicate with manufacturers, vendors and consumers. Learn from competitors.

Improving your skills in materials and manufacturing involves a combination of education, practical experience, and staying updated with the latest trends and technologies. Here are some strategies to consider: 1) Work in R&D Material Lab: This can provide deeper insights into material properties and processes. 2) Continuous Learning and Adaptation: Embrace a mindset of continuous learning and be open to adapting to new technologies and methods. 3) Usage of Simulation Software: This can help in understanding the intricacies of how different materials behave under various conditions. 4) Mentorship: Their guidance can be invaluable in navigating your career and skill development in materials and manufacturing.

1. Complete on job training 2. Reading industry publications 3. Practice your Skills 4. Take short courses 5. learn from youtubers

Improve material and manufacturing skills by advancement, which involves a blend of theoretical knowledge, practical application, networking, and a commitment to continual learning in a rapidly evolving field. Education & Experience: Gain relevant degrees, hands-on learning, and specialized training. Stay Updated: Follow industry trends, attend events, and network for insights. Skills Development: Learn advanced tech, conduct research, and engage in projects. Collaborate & Learn: Seek mentorship, problem-solve, and innovate through projects. Software & Ethics: Master CAD/CAM, stay compliant, and be ethically aware in advancements.

Enhancing material and manufacturing skills through decentralized governance involves engaging in decentralized networks and platforms that facilitate knowledge sharing. Participating in open forums, decentralized educational initiatives, and collaborative projects allows for diverse perspectives and skill-building opportunities. By tapping into decentralized communities, individuals can access a wealth of expertise, fostering continuous learning and skill development. This dynamic and inclusive approach to knowledge acquisition enables practitioners to stay abreast of industry advancements, adopt innovative practices, and contribute to the collective growth of material and manufacturing skills in a decentralized governance framework.

Enhancing skills involves a combination of formal education, hands-on experience, and networking. Pursue relevant courses, engage in practical projects, and connect with mentors in the field. Joining professional organizations and attending workshops contributes to continuous skill development.

Enhancing skills involves a combination of formal education, hands-on experience, and networking. Pursue relevant courses, engage in practical projects, and connect with mentors in the field. Joining professional organizations and attending workshops contributes to continuous skill development.

improving material and manufacturing skills. Always working on better solutions and researching and working with new factories and suppliers. Sometimes i even like to get involved in this process it’s all about good communication between all involved. No idea is a bad idea is the right attitude.

In recent times, ICME (integrated computational materials engineering) has been added as an engineering stream in many universities. Apart from this, considering material and manufacturing process back in mind, continuously read and try to optimize your product design through these aspects: Wastage reduction, improve product quality, reduce cost, customer satisfaction, compliance with regulation. As time passes, you will gain both knowledge and skills.

Improving material and manufacturing skills is crucial for a successful product design career. Practice and refine skills through diverse projects and seek feedback from peers, mentors, or experts. Utilize courses, books, workshops, or online platforms to learn and grow in the field.

For a product designer additional knowledge about any other technical aspects of the product is definitely a boost. In real case we cannot seperate materials or manufacturing process out of product design methodology, those are also subset of product design.One of the main aspect of product design to be sucess is technical feasibility, which is also even rooted in materials and manufacturing methods as well. It's always good to develop some these knowledge as below to boost your product design career - Creating your own material library atleast at a studio level - Follow material trends across globe - Understand conventional and new manufacturing methods Caution! Don't loose your openness to thoughts ands concepts as a designer

Utiliser des matériaux différents nécessitent d'autres process de fabrication et surtout d'autres manières de conception.

Define ,the ideal material to be applied to the product ,with the manufacturing process and design for assembly is the ideal concept.

Decentralized fundraising and governance in manufacturing sectors offer a paradigm shift towards transparency, efficiency, and community involvement. By leveraging decentralized finance (DeFi) models, manufacturing projects can access a broader range of investors globally. This approach fosters a more inclusive financial ecosystem, enhancing capital accessibility. Moreover, decentralized governance ensures stakeholders have a direct say in decision-making, promoting fairness. Unlike centralized counterparts, this decentralized approach minimizes bureaucratic hurdles, accelerates project timelines, and encourages innovation, making it an ideal choice for fostering financial inclusivity and participatory governance in manufacturing.

In my work I am exposed to multiple exotic pipe materials. Knowing how they are connected together will often drive the designer. Using vendor experts is a great way to learn of the restraints you need to work within.

Talk to your service and production staff, to confirm design choices (in this case materials) to see how they think about it. You would be surprised how much they value you taking their oppinion and how many different oppinions (Not always the best, but not the worst either) youll be getting fron them.

Sharing ideas and bouncing off other people is crucial in the design, development and manufacturing process. Too often I have seen designers that don't want to share their ideas or skills for fear of someone 'stealing' their ideas or others that don't want to ask for help. Sharing skills is one of the best ways to level up both your own skill set, and that of those around you which ultimately creates success!

Make sure that your parts reliably support the assembly requirements. Numerous times, I have seen legacy tolerancing repeated in new designs, resulting in millions of dollars in rework and customization in the factory. You don't want to make those tolerances too tight, however, as detail part manufacturing costs can also escalate parabolically. The tolerance analysis methodology that I used (and wrote about in my book) often enabled me to create successful designs that traditionally would have been considered impossible or too expensive.

Standard practices may not be correct. Both Deming and Drucker contended that most problems are systemic. In my experience, I had to challenge several industry practices that I found were based on false assumptions. Modifying those methodologies to alleviate three common assumptions enabled me to advise engineers toward designs that saved hundreds of millions of dollars.