Most people active in electronics industry are not yet aware that 3D printing can become a game changer. Currently printing and dispensing is done on a limited scale in the electronics industry. For instance: (a) printing of conformal coatings, (b) glob topping of bare dies, (c) dam and fill as packaging technology, (d) dispensing underfill materials, (e) dispensing of conductive adhesives, even dispensing of 3D electrical interconnects.
There are three reasons, why printable electronics is gaining considerable attention. The first is that the printing process can be applied to many different kinds of substrates, and also three-dimensional printing is possible. This enables the changing of the whole system of producing electronic devices, including the design and manufacturing phases, material selection, and device structure and architecture. Second, printed electronics offers better economics to electronics manufacturing. Traditional electronics is cheap only on the mass production scale, in contrast to printing, and especially inkjet printing, which offers flexible and cheap production for tailored small-volume products. Third, printing offers new business models. E.g. Inkjet technology enables also ‘‘desktop manufacturing’’, which applies to small-scale micro factories with small fixed costs.
IRJET- Arduino based 3D Printer with Predestination ParadoxIRJET Journal
The document describes an Arduino-based 3D printer that uses a closed-loop system to check printing steps and correct any errors. It summarizes the existing open-loop 3D printing process that can result in unfinished prints if steps are missed. The proposed system employs a stepper motor controller connected to a stepper motor to check the number of steps during printing and return to the correct position if a step is missed before continuing. The 3D printer uses fused filament fabrication with polylastic acid filament to build objects layer by layer in an additive manufacturing process controlled by an Arduino Mega board.
The document summarizes key topics in 3D printing and modeling for designers. It discusses the history and trends in 3D printing technology, potential economic impacts, principles of 3D printing, and various design applications that can benefit from 3D printing like product design, fashion, art, interiors, and more. The document provides an overview of different 3D printing materials and processes.
- The document outlines an agenda for a talk on 3D printing. The agenda includes introductions, an overview of what 3D printing is and examples of its uses. It also discusses the additive vs subtractive manufacturing processes as well as opportunities for 3D printing businesses for designers. The talk aims to provide ideas and inspiration for designing and manufacturing objects using 3D printing.
1) The document discusses 3D printing technology and provides an overview of its history and applications. It describes how 3D printers work by depositing thin layers of material to build up a 3D object based on a digital design file.
2) The key 3D printing techniques - fused deposition modeling (FDM) and stereolithography - are introduced. The growth of 3D printing applications from rapid prototyping to production of end-use parts in industries like defense, aerospace, automotive and biomedical is noted.
3) A timeline of milestones in 3D printing development is given, from the invention of the main techniques in the 1980s to recent innovations and expanding applications in medicine, transportation
This document discusses 3D printing, including its history and various methods such as selective laser sintering, stereolithography, and fused deposition modeling. It describes how 3D printing works and some business impacts like reduced inventory and just-in-time production. The document also covers new developments like 3D printed cars and buildings, as well as challenges involving health impacts, material properties, and potential economic effects.
BIMA Breakfast Briefing | Making the most of the 'maker revolution.' Speakers slides.
If consumers are on their way to producing products quickly and cheaply from home thanks to new technologies, what does this mean for agencies and brands?
Andy Huntington (Interaction Designer & Hardware Producer at BERG) slides accompanied his talk with his approach to the topic – ‘The maker movement puts power in to the hands of the people.’
Opportunities and challenges in printed electronics productionQuad Industries
Printed electronics represents an enormous potential in a world of interconnected appliances. But there is still a large gap between the technology that is available and the potential for real-life applications. “That’s why we are focusing so strongly on intensive collaboration with our customers,” says Wim Christiaens, R&D director at Quad Industries.
Additive manufacturing 3D Printing technologySTAY CURIOUS
Additive manufacturing 3D Printing
3D printing is the process of building an object one thin layer at a time. It is fundamentally additive rather than subtractive in nature. To many, 3D printing is the singular production of often-ornate objects on a desktop printer.
IRJET- Arduino based 3D Printer with Predestination ParadoxIRJET Journal
The document describes an Arduino-based 3D printer that uses a closed-loop system to check printing steps and correct any errors. It summarizes the existing open-loop 3D printing process that can result in unfinished prints if steps are missed. The proposed system employs a stepper motor controller connected to a stepper motor to check the number of steps during printing and return to the correct position if a step is missed before continuing. The 3D printer uses fused filament fabrication with polylastic acid filament to build objects layer by layer in an additive manufacturing process controlled by an Arduino Mega board.
The document summarizes key topics in 3D printing and modeling for designers. It discusses the history and trends in 3D printing technology, potential economic impacts, principles of 3D printing, and various design applications that can benefit from 3D printing like product design, fashion, art, interiors, and more. The document provides an overview of different 3D printing materials and processes.
- The document outlines an agenda for a talk on 3D printing. The agenda includes introductions, an overview of what 3D printing is and examples of its uses. It also discusses the additive vs subtractive manufacturing processes as well as opportunities for 3D printing businesses for designers. The talk aims to provide ideas and inspiration for designing and manufacturing objects using 3D printing.
1) The document discusses 3D printing technology and provides an overview of its history and applications. It describes how 3D printers work by depositing thin layers of material to build up a 3D object based on a digital design file.
2) The key 3D printing techniques - fused deposition modeling (FDM) and stereolithography - are introduced. The growth of 3D printing applications from rapid prototyping to production of end-use parts in industries like defense, aerospace, automotive and biomedical is noted.
3) A timeline of milestones in 3D printing development is given, from the invention of the main techniques in the 1980s to recent innovations and expanding applications in medicine, transportation
This document discusses 3D printing, including its history and various methods such as selective laser sintering, stereolithography, and fused deposition modeling. It describes how 3D printing works and some business impacts like reduced inventory and just-in-time production. The document also covers new developments like 3D printed cars and buildings, as well as challenges involving health impacts, material properties, and potential economic effects.
BIMA Breakfast Briefing | Making the most of the 'maker revolution.' Speakers slides.
If consumers are on their way to producing products quickly and cheaply from home thanks to new technologies, what does this mean for agencies and brands?
Andy Huntington (Interaction Designer & Hardware Producer at BERG) slides accompanied his talk with his approach to the topic – ‘The maker movement puts power in to the hands of the people.’
Opportunities and challenges in printed electronics productionQuad Industries
Printed electronics represents an enormous potential in a world of interconnected appliances. But there is still a large gap between the technology that is available and the potential for real-life applications. “That’s why we are focusing so strongly on intensive collaboration with our customers,” says Wim Christiaens, R&D director at Quad Industries.
Additive manufacturing 3D Printing technologySTAY CURIOUS
Additive manufacturing 3D Printing
3D printing is the process of building an object one thin layer at a time. It is fundamentally additive rather than subtractive in nature. To many, 3D printing is the singular production of often-ornate objects on a desktop printer.
Role of 3D Printer in Additive ManufacturingIRJET Journal
1) The document discusses the role of 3D printers in additive manufacturing. It describes how 3D printers build objects layer by layer from digital files using various materials like plastics and metals.
2) Material extrusion is highlighted as a common 3D printing technique where thermoplastic filament is heated and selectively deposited through a nozzle to build layers. This approach is inexpensive but slower than others.
3) Examples of parts made using 3D printing include a two-stroke engine, impeller, and jaw chuck. The document outlines the process of designing models, preparing files for printing, and some issues that can occur.
3D printing, also known as additive manufacturing, is a process where a three dimensional object is created by laying down successive layers of material. It works by digitally slicing a virtual 3D design file and printing each slice in turn, allowing complex objects to be built up from successive layers. 3D printing is used across many industries for prototyping, tooling, and production and allows for greater customization of design and manufacturing than traditional subtractive processes like cutting and drilling. The technology continues to advance and become more integrated into commercial production.
Computer project (Disruptive technology 3D printing)mintmathurin
3D printing, also known as additive manufacturing, is a process where a three dimensional object is created by laying down successive layers of material. It works by digitally slicing a virtual 3D design file and building the object layer by layer. 3D printing is used across many industries like engineering, industrial design, automotive, aerospace, dental and more. The technology continues to improve and is expected to change manufacturing by allowing more distributed production.
Powder Metallurgy and 3 D Printing TechnologyRahul Dubey
The document discusses powder metallurgy and 3D printing. It defines powder metallurgy as producing metal powders and making objects from them without melting, and describes key steps as powder production, blending, compacting, and sintering. 3D printing is introduced as additive manufacturing that creates objects by layering materials. Common 3D printing technologies are also outlined, such as selective laser melting and blown powder technology. The document concludes by discussing future challenges and applications of powder metallurgy and 3D printing.
This document summarizes a student project on 3D printing technology. It introduces 3D printing and its uses in areas like medicine, the military, art and mass production. It then describes the 3D printing process and pros and cons. The document outlines the project's data collection through an online survey. The results found most respondents heard of 3D printing through news/TV but few had used it. The conclusion states 3D printing has many applications but is not widely used in Hong Kong, and the government could promote and subsidize it to reduce waste in production.
Gcit1015 it innovations shaping our world final versionPeter Yip
This document summarizes a student project on 3D printing technology. It introduces 3D printing and its uses in areas like medicine, the military, art and mass production. It then describes the 3D printing process and pros and cons. The document outlines the project's data collection through an online survey. The results found most respondents heard of 3D printing through news/TV but few had used it. The conclusion states 3D printing has many applications but is not widely used in Hong Kong, and the government could promote and subsidize it to reduce waste in production.
Jeng Ywan Jeng_Inside 3D Printing Hong KongMecklerMedia
The document discusses killer applications of 3D printing technology. It begins by introducing 3D printing and some major Taiwan 3D printing vendors. It then discusses several killer applications of 3D printing including rapid prototyping, Align Technology which produces clear dental aligners using 3D printing, and use of 3D printing in the luxury goods sector as exemplified by Taiwan-based porcelain designer Franz Collection. The document emphasizes how 3D printing allows customized and complex porcelain designs that were previously difficult to produce.
This document provides an overview of computing for engineering. It discusses the history of computers from early mechanical devices to modern electronic computers. It also covers the characteristics, components, and classification of computers. The four main generations of computers are described based on the technology used. The components of a computer system include hardware, software, and humanware. Hardware consists of the central processing unit and various input/output and storage devices. Software includes operating systems, applications, and programming languages.
The document provides an overview of 3D printing, including its history, components, technologies, materials, advantages, disadvantages, applications, and future scope. It discusses how 3D printers work by depositing materials in layers to form 3D objects based on digital models, and some of the key technologies currently used like stereolithography and fused deposition modeling. The document concludes that 3D printing is a relatively new technology with potential benefits but also uncertainties about its full effects.
RepRap @ FAB6 International Conference, AmsterdamErik de Bruijn
RepRap is an open source 3D printer developed by a community of volunteers. In this talk Rhys Jones shows some of the latest technical developments, Adrian Bowyer, instigator of the project talks about the legal implications. Erik de Bruijn finalizes the talk with an estimation of the project's enormous growth, doubling every 6 months. This shows that personal fabrication is likely to become a reality much more quickly than most observers had dared to suggest.
representation about 3D printing:
Introduction
What is 3D printing
Why I need 3D printer
How Does 3D Printing Work
3D Printing Materials
Future of 3D Printing
Usage of 3D printing
Conclusion
2017 3D Printing: stop prototyping, start producing! Jan Eite Bullema
3D Printing: stop prototyping, start producing!
Jan Eite Bullema, Senior Scientist, TNO
3D printing is transforming from a prototyping technology into a manufacturing technology. Two important roadblocks in this transformation are (1) the difficulty of designing products suitable for 3D printing and (2) production costs. In my presentation I will show how the issue of product design for 3D printing is addressed using big data and machine learning. To lower production costs faster 3D printing technologies have been developed. In the presentation I will show examples of innovative equipment that TNO has developed to increase the production speed of 3D printing.
Digital Fabrication Studio v.0.2: Media, Platforms, Business for Digital Fabr...Massimo Menichinelli
This document discusses digital fabrication, open design, and DIY media and platforms. It begins by looking at media outlets that promote these fields like Wired and Make Magazine. It then examines various platforms for digital fabrication projects including marketplaces like Etsy, Ponoko and Shapeways that allow users to open shops. Crowdfunding platforms like Kickstarter that fund creative projects are also covered. Finally, it discusses business opportunities and models in this space including how some startups like Makerbot originated from open hardware projects.
IOT Based Air & Sound Pollution Monitoring system using Raspberry piIRJET Journal
This document describes an IOT-based air and sound pollution monitoring system using a Raspberry Pi. The system collects data from gas sensors, a sound sensor, and a temperature sensor about air quality and noise levels. The Raspberry Pi processes this sensor data and sends it over WiFi to the cloud for storage and remote access via mobile devices. The data is also displayed locally on an LCD screen and alarms sound if pollution/noise thresholds are exceeded. The system provides real-time environmental monitoring and aims to increase awareness about air and noise pollution levels.
3D Printing is projected as the next industrial revolution and it can potentially influence almost every aspect of our daily life in some way. The missing link or bottleneck in computer aided product development is prototyping or product manufacturing. New development in 3D printing such as digital material takes product development to newer heights. Functional 3D products with complex shapes for novel functionality can be manufactured right at your desktop. Self-replicating 3D printing machines can revolutionize the industrial manufacturing from linear to nonlinear growth. For end customers, 3D printing technology enables complex, intricate design and high cost production products, custom made.
This webinar will start with an overview of 3D printing technology. The parametric CAD model design methodology in COMSOL for 3D printing will be given. Material modelling for evaluating various materials such as polymers, composites, metals, ceramics and hybrid materials, suitable for 3D Printing will be detailed. Resistive, laser and inductive heating simulations for effective thermal processing will be highlighted. A wide range of 3D printed products from molecular models to consumer products which are engineered using Multiphysics CAE will be showcased.
Run through of Resourceful and Sustainable Computing Source: Green ComputingIRJET Journal
1. The document discusses strategies for making computing more environmentally sustainable, referred to as "green computing."
2. It outlines initiatives by companies like Dell, IBM, VMware, and Sun to improve energy efficiency in data centers and devices. This includes utilizing virtualization, consulting services, and more energy-efficient hardware.
3. The document also discusses designing computers with recyclability and reduced environmental impact in mind. This involves substituting toxic materials like lead with more sustainable alternatives and making repair and upgrading easier to extend product lifetimes.
For the WATIFY seminar 20 april 2018 I presented this first builfd of a Digital Twin for a 3D Printer.
Advanced manufacturing is the use of innovative technology to improve products or processes. An important innovative technology is additive manufacturing or 3D printing. In this webinar some practical examples are given how digitization is used to improve 3D printing: 1) e-supply chain tools for additive manufacturing, 2) automated root cause analyses of printing defects, 3) use of deep learning towards Zero Defects.
The last few years microfluidics stopped being a niche technology,with a user base predominantly consisting of engineers. Most of the microfluidic companies now are growing and the install base of instruments based on microfluidics is growing fast. Still, the situation is far from ideal. Designs are unnecessary complicated, there is little to no reuse of build-up expertise or developed components. Similar to the early computerindustry,amajor reason for the low popularity is the complicated character of microfluidic devices, specifically in terms of fabrication, and thusmaking theminaccessible to a larger population.[1]I n the ECSEL MFM project first steps have been made towards developingstandards for microfluidic devices. Standards for basic design features like geometrical outlines and port locations have been proposed inwhite papers[2]and where adopted by ISO in an ISO IWA process.[3]One of the complications of microfluidic products is the challenge of providing electrical connections. The average microfluidic engineer lacks electronicpackaging knowledge. Furthermore, the incompatibility of microfluidics and electronics combined with space constrains, limits the technology choices.
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Role of 3D Printer in Additive ManufacturingIRJET Journal
1) The document discusses the role of 3D printers in additive manufacturing. It describes how 3D printers build objects layer by layer from digital files using various materials like plastics and metals.
2) Material extrusion is highlighted as a common 3D printing technique where thermoplastic filament is heated and selectively deposited through a nozzle to build layers. This approach is inexpensive but slower than others.
3) Examples of parts made using 3D printing include a two-stroke engine, impeller, and jaw chuck. The document outlines the process of designing models, preparing files for printing, and some issues that can occur.
3D printing, also known as additive manufacturing, is a process where a three dimensional object is created by laying down successive layers of material. It works by digitally slicing a virtual 3D design file and printing each slice in turn, allowing complex objects to be built up from successive layers. 3D printing is used across many industries for prototyping, tooling, and production and allows for greater customization of design and manufacturing than traditional subtractive processes like cutting and drilling. The technology continues to advance and become more integrated into commercial production.
Computer project (Disruptive technology 3D printing)mintmathurin
3D printing, also known as additive manufacturing, is a process where a three dimensional object is created by laying down successive layers of material. It works by digitally slicing a virtual 3D design file and building the object layer by layer. 3D printing is used across many industries like engineering, industrial design, automotive, aerospace, dental and more. The technology continues to improve and is expected to change manufacturing by allowing more distributed production.
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The document discusses powder metallurgy and 3D printing. It defines powder metallurgy as producing metal powders and making objects from them without melting, and describes key steps as powder production, blending, compacting, and sintering. 3D printing is introduced as additive manufacturing that creates objects by layering materials. Common 3D printing technologies are also outlined, such as selective laser melting and blown powder technology. The document concludes by discussing future challenges and applications of powder metallurgy and 3D printing.
This document summarizes a student project on 3D printing technology. It introduces 3D printing and its uses in areas like medicine, the military, art and mass production. It then describes the 3D printing process and pros and cons. The document outlines the project's data collection through an online survey. The results found most respondents heard of 3D printing through news/TV but few had used it. The conclusion states 3D printing has many applications but is not widely used in Hong Kong, and the government could promote and subsidize it to reduce waste in production.
Gcit1015 it innovations shaping our world final versionPeter Yip
This document summarizes a student project on 3D printing technology. It introduces 3D printing and its uses in areas like medicine, the military, art and mass production. It then describes the 3D printing process and pros and cons. The document outlines the project's data collection through an online survey. The results found most respondents heard of 3D printing through news/TV but few had used it. The conclusion states 3D printing has many applications but is not widely used in Hong Kong, and the government could promote and subsidize it to reduce waste in production.
Jeng Ywan Jeng_Inside 3D Printing Hong KongMecklerMedia
The document discusses killer applications of 3D printing technology. It begins by introducing 3D printing and some major Taiwan 3D printing vendors. It then discusses several killer applications of 3D printing including rapid prototyping, Align Technology which produces clear dental aligners using 3D printing, and use of 3D printing in the luxury goods sector as exemplified by Taiwan-based porcelain designer Franz Collection. The document emphasizes how 3D printing allows customized and complex porcelain designs that were previously difficult to produce.
This document provides an overview of computing for engineering. It discusses the history of computers from early mechanical devices to modern electronic computers. It also covers the characteristics, components, and classification of computers. The four main generations of computers are described based on the technology used. The components of a computer system include hardware, software, and humanware. Hardware consists of the central processing unit and various input/output and storage devices. Software includes operating systems, applications, and programming languages.
The document provides an overview of 3D printing, including its history, components, technologies, materials, advantages, disadvantages, applications, and future scope. It discusses how 3D printers work by depositing materials in layers to form 3D objects based on digital models, and some of the key technologies currently used like stereolithography and fused deposition modeling. The document concludes that 3D printing is a relatively new technology with potential benefits but also uncertainties about its full effects.
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RepRap is an open source 3D printer developed by a community of volunteers. In this talk Rhys Jones shows some of the latest technical developments, Adrian Bowyer, instigator of the project talks about the legal implications. Erik de Bruijn finalizes the talk with an estimation of the project's enormous growth, doubling every 6 months. This shows that personal fabrication is likely to become a reality much more quickly than most observers had dared to suggest.
representation about 3D printing:
Introduction
What is 3D printing
Why I need 3D printer
How Does 3D Printing Work
3D Printing Materials
Future of 3D Printing
Usage of 3D printing
Conclusion
2017 3D Printing: stop prototyping, start producing! Jan Eite Bullema
3D Printing: stop prototyping, start producing!
Jan Eite Bullema, Senior Scientist, TNO
3D printing is transforming from a prototyping technology into a manufacturing technology. Two important roadblocks in this transformation are (1) the difficulty of designing products suitable for 3D printing and (2) production costs. In my presentation I will show how the issue of product design for 3D printing is addressed using big data and machine learning. To lower production costs faster 3D printing technologies have been developed. In the presentation I will show examples of innovative equipment that TNO has developed to increase the production speed of 3D printing.
Digital Fabrication Studio v.0.2: Media, Platforms, Business for Digital Fabr...Massimo Menichinelli
This document discusses digital fabrication, open design, and DIY media and platforms. It begins by looking at media outlets that promote these fields like Wired and Make Magazine. It then examines various platforms for digital fabrication projects including marketplaces like Etsy, Ponoko and Shapeways that allow users to open shops. Crowdfunding platforms like Kickstarter that fund creative projects are also covered. Finally, it discusses business opportunities and models in this space including how some startups like Makerbot originated from open hardware projects.
IOT Based Air & Sound Pollution Monitoring system using Raspberry piIRJET Journal
This document describes an IOT-based air and sound pollution monitoring system using a Raspberry Pi. The system collects data from gas sensors, a sound sensor, and a temperature sensor about air quality and noise levels. The Raspberry Pi processes this sensor data and sends it over WiFi to the cloud for storage and remote access via mobile devices. The data is also displayed locally on an LCD screen and alarms sound if pollution/noise thresholds are exceeded. The system provides real-time environmental monitoring and aims to increase awareness about air and noise pollution levels.
3D Printing is projected as the next industrial revolution and it can potentially influence almost every aspect of our daily life in some way. The missing link or bottleneck in computer aided product development is prototyping or product manufacturing. New development in 3D printing such as digital material takes product development to newer heights. Functional 3D products with complex shapes for novel functionality can be manufactured right at your desktop. Self-replicating 3D printing machines can revolutionize the industrial manufacturing from linear to nonlinear growth. For end customers, 3D printing technology enables complex, intricate design and high cost production products, custom made.
This webinar will start with an overview of 3D printing technology. The parametric CAD model design methodology in COMSOL for 3D printing will be given. Material modelling for evaluating various materials such as polymers, composites, metals, ceramics and hybrid materials, suitable for 3D Printing will be detailed. Resistive, laser and inductive heating simulations for effective thermal processing will be highlighted. A wide range of 3D printed products from molecular models to consumer products which are engineered using Multiphysics CAE will be showcased.
Run through of Resourceful and Sustainable Computing Source: Green ComputingIRJET Journal
1. The document discusses strategies for making computing more environmentally sustainable, referred to as "green computing."
2. It outlines initiatives by companies like Dell, IBM, VMware, and Sun to improve energy efficiency in data centers and devices. This includes utilizing virtualization, consulting services, and more energy-efficient hardware.
3. The document also discusses designing computers with recyclability and reduced environmental impact in mind. This involves substituting toxic materials like lead with more sustainable alternatives and making repair and upgrading easier to extend product lifetimes.
Similar to 2014 2D and 3D printing to realize innovative electronic products (20)
For the WATIFY seminar 20 april 2018 I presented this first builfd of a Digital Twin for a 3D Printer.
Advanced manufacturing is the use of innovative technology to improve products or processes. An important innovative technology is additive manufacturing or 3D printing. In this webinar some practical examples are given how digitization is used to improve 3D printing: 1) e-supply chain tools for additive manufacturing, 2) automated root cause analyses of printing defects, 3) use of deep learning towards Zero Defects.
The last few years microfluidics stopped being a niche technology,with a user base predominantly consisting of engineers. Most of the microfluidic companies now are growing and the install base of instruments based on microfluidics is growing fast. Still, the situation is far from ideal. Designs are unnecessary complicated, there is little to no reuse of build-up expertise or developed components. Similar to the early computerindustry,amajor reason for the low popularity is the complicated character of microfluidic devices, specifically in terms of fabrication, and thusmaking theminaccessible to a larger population.[1]I n the ECSEL MFM project first steps have been made towards developingstandards for microfluidic devices. Standards for basic design features like geometrical outlines and port locations have been proposed inwhite papers[2]and where adopted by ISO in an ISO IWA process.[3]One of the complications of microfluidic products is the challenge of providing electrical connections. The average microfluidic engineer lacks electronicpackaging knowledge. Furthermore, the incompatibility of microfluidics and electronics combined with space constrains, limits the technology choices.
This presentaion is a short introduction into the fascinating subject of biocompatible packaging of MEMS / micro systems. I gave this presentation for a technology cluster of Dutch micro systems companies
Reliability in the Age of Big Data
Big data features not only large volumes of data but also data with complicated structures. Complexity imposes unique challenges in big data analytics. The issue at hand is how to link typical new data elements of big data as covariates to traditional reliability responses such as time to failure, time to recurrence of events, and degradation measurements. New methods like deep learning, text mining and multivariate degradation models are currently explored to use big data for reliability applications. These new methods can be the basis for new reliability propositions like use based insurance. Basis for this presentation is a paper by William Meeker and coworkers, were new reliability methods for using Big Data are introduced. At TNO we are currently working on Digital Twins for Smart Manufacturing, a topic closely related to use of big data for reliability in industrial environments
2016 Bayesian networks to analyse led reliability Jan Eite Bullema
1) Bayesian networks can be used to analyze LED reliability by building models from expert knowledge of failure modes.
2) LED systems are complex with reliability dependent on factors beyond single component performance like temperature effects.
3) Bayesian networks combined with mission profiles can predict reliability by considering real world usage conditions over time.
These are the slides I made for the Micro Systems and Nano technology course that I gave for Mikro centrum for some years, a little old but not outdated i think. Already the current converge of hardware technology, software technology and biology becomes visible.
Accelerated Life Testing (ALT) is a lifetime prediction methodology commonly used by the industry in the past decades. This method , however, is reaching its limitations with the development of products within emerging technologies requiring long-term reliability. At TNO we work on technology development with long expected lifetimes , e.g. solar cells and LED lighting.
New methodologies are required to predict long term reliability for these type of products. Methods to predict long term reliability by extending ALT methods, like HALT (Highly Accelerated Life Testing) and MEOST (Multiple Environmental Stress Testing) will be discussed in the presentation.
A problem in application of these methods is definition of adequate stress profiles. It is our experience that to gain benefit from accelerated testing, insight in the Physic of Failure of a product is essential.
Deep Learning with H2O and R
In my previous TNO4U talk I gave an introduction about how I addressed the classification problem for autonomous driving using fuzzy logic based insights. I also gave a very concise introduction on deep learning. In this talk I want to go more into the details of deep learning - what is it - and why people think it is so important. Due to the duration of the talk I will not go through the complete history of Artificial Intelligence from the perceptron, via the Hopfield net, towards modern Restricted Bolzmann Machines and Convoluted Neural Networks. Nor get philosophical and do a Gödel, Escher, Bach exposé.
I will just give some basic theoretical considerations and demonstrate how one easy it is to get results with deep learning using – open source- tools like R and H2O. You can install these for free on any computer, Windows, Linux or Mac. R is of course the computer language of choice for data science, H2O is an easy to use interface between R and Big Data (like Spark).
During the talk we will do some small workshop style examples. Handwriting recognition with a Restricted Bolzmann Machine, analyze heartbeats with machine learning and do a little predictive modelling on an industrial process.
Are this the heartbeats of a healthy person? Let’s ask our algorithm (The computer has seen more heartbeats than any living doctor)
This presentation is an introduction into Multiple Over Stress Testing. A method to design robust and reliable products. It is a relaibility method that requires much insight in the Physics of Failure of the product in development
This painting is a painting by Matisse. It is a painting called: “The fall of Icarus” I use this painting for this colloquium lecture, because twenty years ago, there was a German company called Fuzzytech that had this Matisse painting as their poster. Also whit the text precision is not truth. I have had this poster of Fuzzytech for more than ten years over my desk at home. Because I liked this basic concept of Fuzzy Logic very much: Precision is not truth. Twenty years ago I gave a Fuzzy Logic course for CTT and Fontys, because I had made several Fuzzy Control algorithms and had become a national expert in Fuzzy Logic. Eventually the Fuzzy Logic hype dwindled down and I proceeded concentrating on other advanced process control methods A few months ago I encounter in the Crystal project a classification problem, for safety evaluation of autonomous driving, that could be solved using Fuzzy Logic. So I read about the latest developments and saw that there have been interesting developments in this field. New set theory and potential coupling of Fuzzy Logic with Big Data analytics.
I decided to give this colloquium, based upon my old three day Fuzzy Logic course. So I start with a concise introduction, give an example of an application. And then jump into the developments in soft computing and deep learning, which is a broader than fuzzy logic. The precision is not truth part of the lecture is an outline of my current work for safety classification of collaborative driving.
2015 3D Printing for microfluidics manufacturingJan Eite Bullema
This document discusses 3D printing for microfluidics manufacturing. It outlines a project called MFManufacturing that aims to build a distributed pilot line for producing microfluidic demonstrators using different 3D printing technologies. Examples are provided of microfluidic structures like stenosis, villi, vascular systems, and mixers that have been 3D printed. Advantages of 3D printing for microfluidics include customizable designs and the ability to produce complex structures.
33D Printing Organ on a Chip, Jan Eite Bullema, TNO Industrial Science
The goal of this so-called deep dive exploration is to identify business potential of biomimetic microfluidic systems (organ-on-a-chip).
One of the most attractive applications of organ-on-a-chip at the moment appears to be mimicking human’s physiological responses for medicine development.
Efficacy of medicine is a big challenge for the pharmaceutical industry. Depending on the illness specific drugs can have an efficacy of less than 30 %.
Drug efficacy is one of the topics addressed by the Netherlands by an "Over de grenzen" KNAW program.
In the presentation I will focus on recent -3D Printing developments- in the field of organ / organ-on-a-chip printing. Just to give an impression of the awesome, fantastic, amazing, wow - no - WOW!!- developments. Since a few years organs are printed in the lab, and I will start with some examples of printed organs bones, kidneys, blood vesels, livers, ears, that can be made at the moment. Then I will dive deeper into organ-on-a-chip, a true micro sysmtems topic - my area of expertise here- , and explain a little on what organs-on-chip are. Subsequent I will go into various technologies for 3D printing of cell and bio materials. And I will finish with some ideas on organ printing that are trully amazing, most impressive are Craig Venter's .
The document discusses wire bonding for MEMS technology. It covers topics like wire bonding equipment, metallurgy considerations for common metal combinations used in wire bonding, shear testing of wire bonds, and process parameters that affect wire bonding results. The document contains diagrams and images to illustrate concepts discussed. It aims to provide an introduction and overview of key aspects of wire bonding.
2014 Medical applications of Micro and Nano TechnologiesJan Eite Bullema
The document discusses medical applications of micro and nano technology. It begins with definitions of microsystems technology and nanotechnology. It then discusses various medical applications including implants and artificial organs like pacemakers, diagnostic devices like endoscopy cameras and pill cams, drug delivery systems, and microfluidics applications like lab-on-a-chip devices. The document also briefly mentions applications in genomics and proteomics.
2016 How to make big data productive in semicon manufacturingJan Eite Bullema
PMML, Predictive Model Markup Language, Prognositcs, Use of Big Data in Manufacturing, Basic Architecture, Holonics, Agent Based Control, Advanced Process Control
This document provides an overview of reliability in complex systems. It discusses how systems reliability cannot be determined by examining parts alone due to interactions. LED systems are given as an example of a complex system where lifetime prediction requires understanding effects of temperature, electrical configurations, and other factors. The document recommends modern reliability approaches like MOEST testing, Bayesian Networks, and using big data from real-world use to better predict failure of complex systems.
What are micro interconnections?
Reliable electrical micro interconnections with long lifetime expectations?
Solder micro interconnects and common failure mechanisms
Adhesive micro interconnect and common failure mechanisms
How to achieve durability in a micro interconnect
Conclusion
Sudheer Mechineni, Head of Application Frameworks, Standard Chartered Bank
Discover how Standard Chartered Bank harnessed the power of Neo4j to transform complex data access challenges into a dynamic, scalable graph database solution. This keynote will cover their journey from initial adoption to deploying a fully automated, enterprise-grade causal cluster, highlighting key strategies for modelling organisational changes and ensuring robust disaster recovery. Learn how these innovations have not only enhanced Standard Chartered Bank’s data infrastructure but also positioned them as pioneers in the banking sector’s adoption of graph technology.
In his public lecture, Christian Timmerer provides insights into the fascinating history of video streaming, starting from its humble beginnings before YouTube to the groundbreaking technologies that now dominate platforms like Netflix and ORF ON. Timmerer also presents provocative contributions of his own that have significantly influenced the industry. He concludes by looking at future challenges and invites the audience to join in a discussion.
How to Get CNIC Information System with Paksim Ga.pptxdanishmna97
Pakdata Cf is a groundbreaking system designed to streamline and facilitate access to CNIC information. This innovative platform leverages advanced technology to provide users with efficient and secure access to their CNIC details.
Why You Should Replace Windows 11 with Nitrux Linux 3.5.0 for enhanced perfor...SOFTTECHHUB
The choice of an operating system plays a pivotal role in shaping our computing experience. For decades, Microsoft's Windows has dominated the market, offering a familiar and widely adopted platform for personal and professional use. However, as technological advancements continue to push the boundaries of innovation, alternative operating systems have emerged, challenging the status quo and offering users a fresh perspective on computing.
One such alternative that has garnered significant attention and acclaim is Nitrux Linux 3.5.0, a sleek, powerful, and user-friendly Linux distribution that promises to redefine the way we interact with our devices. With its focus on performance, security, and customization, Nitrux Linux presents a compelling case for those seeking to break free from the constraints of proprietary software and embrace the freedom and flexibility of open-source computing.
Introducing Milvus Lite: Easy-to-Install, Easy-to-Use vector database for you...Zilliz
Join us to introduce Milvus Lite, a vector database that can run on notebooks and laptops, share the same API with Milvus, and integrate with every popular GenAI framework. This webinar is perfect for developers seeking easy-to-use, well-integrated vector databases for their GenAI apps.
Unlock the Future of Search with MongoDB Atlas_ Vector Search Unleashed.pdfMalak Abu Hammad
Discover how MongoDB Atlas and vector search technology can revolutionize your application's search capabilities. This comprehensive presentation covers:
* What is Vector Search?
* Importance and benefits of vector search
* Practical use cases across various industries
* Step-by-step implementation guide
* Live demos with code snippets
* Enhancing LLM capabilities with vector search
* Best practices and optimization strategies
Perfect for developers, AI enthusiasts, and tech leaders. Learn how to leverage MongoDB Atlas to deliver highly relevant, context-aware search results, transforming your data retrieval process. Stay ahead in tech innovation and maximize the potential of your applications.
#MongoDB #VectorSearch #AI #SemanticSearch #TechInnovation #DataScience #LLM #MachineLearning #SearchTechnology
20 Comprehensive Checklist of Designing and Developing a WebsitePixlogix Infotech
Dive into the world of Website Designing and Developing with Pixlogix! Looking to create a stunning online presence? Look no further! Our comprehensive checklist covers everything you need to know to craft a website that stands out. From user-friendly design to seamless functionality, we've got you covered. Don't miss out on this invaluable resource! Check out our checklist now at Pixlogix and start your journey towards a captivating online presence today.
Threats to mobile devices are more prevalent and increasing in scope and complexity. Users of mobile devices desire to take full advantage of the features
available on those devices, but many of the features provide convenience and capability but sacrifice security. This best practices guide outlines steps the users can take to better protect personal devices and information.
Essentials of Automations: The Art of Triggers and Actions in FMESafe Software
In this second installment of our Essentials of Automations webinar series, we’ll explore the landscape of triggers and actions, guiding you through the nuances of authoring and adapting workspaces for seamless automations. Gain an understanding of the full spectrum of triggers and actions available in FME, empowering you to enhance your workspaces for efficient automation.
We’ll kick things off by showcasing the most commonly used event-based triggers, introducing you to various automation workflows like manual triggers, schedules, directory watchers, and more. Plus, see how these elements play out in real scenarios.
Whether you’re tweaking your current setup or building from the ground up, this session will arm you with the tools and insights needed to transform your FME usage into a powerhouse of productivity. Join us to discover effective strategies that simplify complex processes, enhancing your productivity and transforming your data management practices with FME. Let’s turn complexity into clarity and make your workspaces work wonders!
A tale of scale & speed: How the US Navy is enabling software delivery from l...sonjaschweigert1
Rapid and secure feature delivery is a goal across every application team and every branch of the DoD. The Navy’s DevSecOps platform, Party Barge, has achieved:
- Reduction in onboarding time from 5 weeks to 1 day
- Improved developer experience and productivity through actionable findings and reduction of false positives
- Maintenance of superior security standards and inherent policy enforcement with Authorization to Operate (ATO)
Development teams can ship efficiently and ensure applications are cyber ready for Navy Authorizing Officials (AOs). In this webinar, Sigma Defense and Anchore will give attendees a look behind the scenes and demo secure pipeline automation and security artifacts that speed up application ATO and time to production.
We will cover:
- How to remove silos in DevSecOps
- How to build efficient development pipeline roles and component templates
- How to deliver security artifacts that matter for ATO’s (SBOMs, vulnerability reports, and policy evidence)
- How to streamline operations with automated policy checks on container images
TrustArc Webinar - 2024 Global Privacy SurveyTrustArc
How does your privacy program stack up against your peers? What challenges are privacy teams tackling and prioritizing in 2024?
In the fifth annual Global Privacy Benchmarks Survey, we asked over 1,800 global privacy professionals and business executives to share their perspectives on the current state of privacy inside and outside of their organizations. This year’s report focused on emerging areas of importance for privacy and compliance professionals, including considerations and implications of Artificial Intelligence (AI) technologies, building brand trust, and different approaches for achieving higher privacy competence scores.
See how organizational priorities and strategic approaches to data security and privacy are evolving around the globe.
This webinar will review:
- The top 10 privacy insights from the fifth annual Global Privacy Benchmarks Survey
- The top challenges for privacy leaders, practitioners, and organizations in 2024
- Key themes to consider in developing and maintaining your privacy program
For the full video of this presentation, please visit: https://www.edge-ai-vision.com/2024/06/building-and-scaling-ai-applications-with-the-nx-ai-manager-a-presentation-from-network-optix/
Robin van Emden, Senior Director of Data Science at Network Optix, presents the “Building and Scaling AI Applications with the Nx AI Manager,” tutorial at the May 2024 Embedded Vision Summit.
In this presentation, van Emden covers the basics of scaling edge AI solutions using the Nx tool kit. He emphasizes the process of developing AI models and deploying them globally. He also showcases the conversion of AI models and the creation of effective edge AI pipelines, with a focus on pre-processing, model conversion, selecting the appropriate inference engine for the target hardware and post-processing.
van Emden shows how Nx can simplify the developer’s life and facilitate a rapid transition from concept to production-ready applications.He provides valuable insights into developing scalable and efficient edge AI solutions, with a strong focus on practical implementation.
Encryption in Microsoft 365 - ExpertsLive Netherlands 2024Albert Hoitingh
In this session I delve into the encryption technology used in Microsoft 365 and Microsoft Purview. Including the concepts of Customer Key and Double Key Encryption.
Alt. GDG Cloud Southlake #33: Boule & Rebala: Effective AppSec in SDLC using ...James Anderson
Effective Application Security in Software Delivery lifecycle using Deployment Firewall and DBOM
The modern software delivery process (or the CI/CD process) includes many tools, distributed teams, open-source code, and cloud platforms. Constant focus on speed to release software to market, along with the traditional slow and manual security checks has caused gaps in continuous security as an important piece in the software supply chain. Today organizations feel more susceptible to external and internal cyber threats due to the vast attack surface in their applications supply chain and the lack of end-to-end governance and risk management.
The software team must secure its software delivery process to avoid vulnerability and security breaches. This needs to be achieved with existing tool chains and without extensive rework of the delivery processes. This talk will present strategies and techniques for providing visibility into the true risk of the existing vulnerabilities, preventing the introduction of security issues in the software, resolving vulnerabilities in production environments quickly, and capturing the deployment bill of materials (DBOM).
Speakers:
Bob Boule
Robert Boule is a technology enthusiast with PASSION for technology and making things work along with a knack for helping others understand how things work. He comes with around 20 years of solution engineering experience in application security, software continuous delivery, and SaaS platforms. He is known for his dynamic presentations in CI/CD and application security integrated in software delivery lifecycle.
Gopinath Rebala
Gopinath Rebala is the CTO of OpsMx, where he has overall responsibility for the machine learning and data processing architectures for Secure Software Delivery. Gopi also has a strong connection with our customers, leading design and architecture for strategic implementations. Gopi is a frequent speaker and well-known leader in continuous delivery and integrating security into software delivery.
UiPath Test Automation using UiPath Test Suite series, part 5DianaGray10
Welcome to UiPath Test Automation using UiPath Test Suite series part 5. In this session, we will cover CI/CD with devops.
Topics covered:
CI/CD with in UiPath
End-to-end overview of CI/CD pipeline with Azure devops
Speaker:
Lyndsey Byblow, Test Suite Sales Engineer @ UiPath, Inc.
2. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
2
3. What is 3D Printing?
3D Printing = Additive Manufacturing
Layer by layer
3D CAD Slice file Part
3
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
4. What is 3D Printing?
3D Printing gives freedom in Product Design
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
4
5. What is 3D Printing?
Additive Manufacturing / TNO achievements
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
5
6. What is 3D Printing?
Additive Manufacturing / TNO achievements
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
6
7. What is 3D Printing?
TNO TECHNOLOGY INSIDE / TNO achievements
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
7
Source: TNO 2014
8. What is 3D Printing?
LEPUS NEXT GEN Large Area / TNO achievements
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
8
Source: TNO 2014
9. What is 3D Printing?
Print Valley 3D Printing / TNO achievements
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
9
Source: TNO 2012
10. What is 3D Printing?
TNO’s Print Valley 3D Printing Machine
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
10
Source: TNO 2012
11. What is 3D Printing?
TNO’s Print Valley 3D Printing Machine
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
11
Source: TNO 2012
12. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
12
13. Methods / Materials / Innovative Electronic Products
Major processes for 3D Printing
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
13
Source: ASTM International Committee on Additive Manufacturing Technologies
Material
Extrusion
Material
Jetting
Binder
Jetting
Sheet
Lamination
VAT photo
Polymerization
Powder Bed
fusion
Direct Energy
Deposition
14. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Processes
Powder Bed Selective Laser Sintering
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
14
15. Methods / Materials / Innovative Electronic Products
Quality of 3D Printed Materials
Strength of printed metals with OPTOMEC LENS printing Technology
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
16
Source: OPTOMEC 2013
16. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Materials
a growing number of printable materials, currently over 200 materials
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
17
Source: Wohlers Report 2013
Organic
Materials
Ceramic
Materials
Metallic
Materials
Polymeric
Materials
Waxes Alumina Aluminium
Poly Amide
(Nylon)
Tissues Zirconia Tool SteelABS
Cells Mullite TitaniumPMMA
Silicon
Carbide
Stainless
Steel
Poly
Carbonate
GoldPEEK
17. Methods / Materials / Innovative Electronic Products
Quality of 3D Printed Materials
Datasheet SOMOS water resistant resin for Stereolithography
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
18
Source: DSM 2013
18. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Processes
Aerosol Jetting Process
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
19
Source: Optomec 2013
19. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Processes
Aerosol Jetting Process
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
20
Source: Sirris 2013
20. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Processes
Aerosol Jetting Process
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
21
Source: Funktionalisierung von Kunststoffen durch Inkjet und Aerosoldruck
21. Methods / Materials / Innovative Electronic Products
Additive Manufacturing Materials
Aerosol Jet Material / Substrate Matrix
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
22
Source: Optomec 2013
22. Methods / Materials / Innovative Electronic Products
Printing used for wiring in aeroplanes
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
23
Source: Boeing 2013
23. Methods / Materials / Innovative Electronic Products
3D Printed Gaming Die
Embedded micro controller and accelerometer identify top surface
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
24
Source: W.M. Keck Center for 3D Innovation
24. Methods / Materials / Innovative Electronic Products
3D Printing Process: RMPD - mask structure
THz antenna with fluidic channel
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
25
Source: microTec 2014
25. Methods / Materials / Innovative Electronic Products
3D Printing Materials: Meta Materials
Meta materials derive their properties not from compositional
properties, but from exactingly-designed structures
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
26
Source: TNO 2013, TNO 2014
26. Methods / Materials / Innovative Electronic Products
Process: High Volume Print Forming (HVPF)
Printing of fine pitch QFN packages
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
27
Source: http://www.eoplex.com/
27. Methods / Materials / Innovative Electronic Products
Innovative Printed Electronic Products
Printing of EMI shielding on a dome
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
28
Source: Optomec 2013
28. Methods / Materials / Innovative Electronic Products
Innovative Printed Electronic Products
Assembly-free MEMS Package with Moving Parts
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
30
Source: Fraunhofer Gesellschaft 2010
29. Methods / Materials / Innovative Electronic Products
Innovative Printed Electronic Products
Fractal Antenna on Abdomen of a Worker Honey Bee
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
31
Source: Wright State University, US Naval Research Laboratory
30. Methods / Materials / Innovative Electronic Products
Innovative Electronic Products
Electronic Tattoo for remote sensing of Patients
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
32
Source: University of Illinois at Urbana-Champaign
31. Methods / Materials / Innovative Electronic Products
Innovative Printed Electronic Products
Electronic Tattoo for remote sensing of Patients
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
33
Source: University of Illinois at Urbana-Champaign
32. Methods / Materials / Innovative Electronic Products
Electronic Tattoo for remote sensing of Patients
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
34
Source: MIT Technology Review 2013
33. Methods / Materials / Innovative Electronic Products
3D Printed Bionic Ear
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
35
Source: Princeton University 2013
34. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
36
35. Rapid Prototyping → Additive Manufacturing
The silent revolution in manufacturing of hearing Aid Applications
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
37
Source: Widex
36. Rapid Prototyping → Additive Manufacturing
2 years time change from manual production to digital shell production
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
38
Source: Phonak
37. Rapid Prototyping → Additive Manufacturing
AM for direct production of parts that end up in final products
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
39
Source: Wohlers Report 2012
38. Rapid Prototyping → Additive Manufacturing
3D Printing Products / Parts at Home
What to print at home: The expanding thingiverse
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
40
Source: www.thingiverse.com/ 2013
> 100.000 printable open source designs available on the internet
39. Rapid Prototyping → Additive Manufacturing
3D Printing Products / Parts at Home
payback time for average US household 4 months to 2 years
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
41
Source: Mechatronics 23 (2013) 713–726
40. Rapid Prototyping → Additive Manufacturing
The emerging Internet of Things is speeding us to
an era of nearly free goods and services
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
42
http://www.amazon.com/Zero-Marginal-Cost-Society-Collaborative
41. Rapid Prototyping → Additive Manufacturing
3D Printing Products / High Volume Electronics
Additive Manufacturing Landscape according to Optomec
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
43
Source: Optomec 2013
42. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
44
43. 2D / 3D Printing in Electronics Manufacturing
3D Printing Awareness in Electronics Manufacturing
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
45
Source: Global SMT July 2013
44. 2D / 3D Printing in Electronics Manufacturing
Solder Jetting: mFab printing solder balls on wafer
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
46
Source: micro Fab
45. 2D / 3D Printing in Electronics Manufacturing
Dispensed ‘Wirebonds’
ASYMTEK makes printed wire bond for stacked IC
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
47
http://www.nordson.com
46. 2D / 3D Printing in Electronics Manufacturing
Printed m batteries for integration in m systems
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
48
Source: Harvard, 2013
47. 2D / 3D Printing in Electronics Manufacturing
Printed m batteries for integration in m systems
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
49
Source: Harvard, 2013
48. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
50
Joseph Fjelstad, 2011
49. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
The process steps for Occam are few, simple and eliminate the need for solder
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
51
Source: Joseph Fjeldstat, Flexible Circuit Technology 4rd Edition
50. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
Major process steps for basic surface mount assembly
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
52
Source: Joseph Fjeldstat, Flexible Circuit Technology 4rd Edition
51. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
Process steps eliminating those made unnecessary by the Occam process
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
53
Source: Joseph Fjeldstat, Flexible Circuit Technology 4rd Edition
52. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
Relative cost of multilayer circuit constructions and their I/O support capability
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
54
Source: Joseph Fjeldstat, Flexible Circuit Technology , 4rd Edition
53. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
Assemblies can be interconnected in edge card fashion or in planar fashion
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
55
Source: Joseph Fjeldstat, Flexible Circuit Technology , 4rd Edition
54. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
56
Source: Verdant Technologies, 2007
55. 2D / 3D Printing in Electronics Manufacturing
3D Printed Circuit Board / Occam Technology
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
57
Source: Joseph Fjeldstat, Flexible Circuit Technology , 4rd Edition
Materials costs for the Occam assembly can’t be too much (say 50
cents per, max) and with the elimination of the PCB and Assembly
cost, say $2 ($1 for each) that’s a gross savings of at least $100
million annually. The lease rate is probably $100-200k monthly for
that $20 million dollar piece of equipment and operations another
million (labor, facilities, etc,).
So, just off the top, it looks like Occam could save an OEM
mobile handset manufacturer 100-150 million $ annually
per production line
56. 2D / 3D Printing in Electronics Manufacturing
Process: Aerosol Jetting
OPTOMEC makes aerosol jetting based printed circuit board
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
58
Source: OPTOMEC
57. 2D / 3D Printing in Electronics Manufacturing
Process: Plasma Particle Jetting
Flamecon Process
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
59
Source: LEONI, 2012
58. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
3D Structural Electronics with FDM and Direct Write Micro Dispensing
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
60
Source: W.M. Keck Centre for 3D Innovation, June 2013
59. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
3D Structural Electronics with FDM and Direct Write Micro Dispensing
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
61
Source: W.M. Keck Centre for 3D Innovation, June 2013
60. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
Printed 3D System in Package
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
62
Source: Fraunhofer, 2010
61. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
Printed 3D System in Package
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
63
Source: Fraunhof IZM, 2010
62. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
Printed MID Prototype
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
64
Source: Fraunhofer Allianz Generative Fertigung, 2013
63. 2D / 3D Printing in Electronics Manufacturing
Nano inks enable home printing of electronics within 10 years
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
66
Source: Max Planck Institute for Informatics, 2013
64. 2D / 3D Printing in Electronics Manufacturing
DuPont™ PE510 copper
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
67
http://www.dupont.com/products-and-services/electronic-electrical-materials/printed-electronics.html?src=pr-printed-electronics
DuPont PE510 Copper Conductor
offers cost-effective design
flexibility for Printed Electronics
65. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
$9k Voxel 8 3D printer to print a drone in your living room
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
68
http://gizmodo.com/this-9k-machine-could-usher-in-the-era-of-3d-printed-e-1677580682
66. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
$9k Voxel 8 3D printer to print a drone in your living room
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
69
http://gizmodo.com/this-9k-machine-could-usher-in-the-era-of-3d-printed-e-1677580682
67. 2D / 3D Printing in Electronics Manufacturing
Combined 3D Printing Processes
$9k Voxel 8 3D printer to print a drone in your living room
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
70
http://gizmodo.com/this-9k-machine-could-usher-in-the-era-of-3d-printed-e-1677580682
68. 2D / 3D Printing in Electronics Manufacturing
IPC is setting standards for Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
71
Source: PCB Magazine August 2013
69. 2D / 3D Printing in Electronics Manufacturing
IPC is defining standards for Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
72
Source: PCB Magazine August 2013
70. 2D / 3D Printing in Electronics Manufacturing
IPC is setting standards for Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
73
Source: PCB Magazine August 2013
71. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
74
72. Recent developments in 3D printed Electronics at TNO
3D Printed Electronic Packaging
printed conductive interconnections SLA and LIFT
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
75
Source: TNO 2011
73. Recent developments in 3D printed Electronics at TNO
3D Printed Electronic Packaging
printed conductive interconnections SLA and LIFT
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
76
Source: TNO 2011
74. Recent developments in 3D printed Electronics at TNO
Evaporative Micro Cooling
Printing of conformal m fluidic channels
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
77
Source: TNO 2011
75. Recent developments in 3D printed Electronics at TNO
Printing of MEMS pressure nozzles for Melexis
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
78
Source: TNO 2012
76. Recent developments in 3D printed Electronics at TNO
Printing of MEMS pressure nozzles for Melexis
After Pressure Cooker Test
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
79
Source: TNO 2012
77. Recent developments in 3D printed Electronics at TNO
Printing of MEMS pressure nozzles for Melexis
Packaging of a Ring Resonator
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
80
Source: TNO / TUD 2013
78. Recent developments in 3D printed Electronics at TNO
Printing of micro Fluidic Connectors
Printing of m fluidic channels on ceramic substrate and glass substrate
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
81
Source: TNO 2013
79. Recent developments in 3D printed Electronics at TNO
Printing of micro Fluidic Connectors
Printing of m fluidic channels direct build on silicon wafer
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
82
Source: TNO 2013
80. Recent developments in 3D printed Electronics at TNO
Printing of micro Fluidic Connectors
Printing of m fluidic channels direct build on silicon wafer
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
83
Source: TNO 2013
81. 3D Printing to Realize Innovative Electronic Products
- Content -
- What is 3D Printing?
- Methods / Materials / Innovative Electronic Products
- Rapid Prototyping evolves into Additive Manufacturing
- 2D / 3D Printing in Electronics Manufacturing
- Recent developments in 3D printed Electronics at TNO
- Conclusions: The future of Printed Electronics
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
84
82. Conclusions
The future of Printed Electronics
“The Internet of Things”
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
85
Source: SMT Magazine • January 2014
83. Conclusions
The future of Printed Electronics
“The Internet of Things”
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
86
Source: Nanochip Magazine: January 2014
84. Conclusion
The future of Printed Electronics
3D Printing of Electronics moves fast ahead
January 17, 2014
Jan Eite Bullema
2D / 3D Printing
87
Source: TNO 2012