Predicting the future of additive manufacturing: A Delphi study on economic and societal implications of 3D printing for 2030

Jiang, Ruth; Kleer, Robin; Piller, Frank T.

doi:10.1016/j.techfore.2017.01.006

Cited by 408 publications

(260 citation statements)

References 43 publications

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“…In recent years, 3D printing has attracted much interest in the industrial and scientific community as it offers enormous potential to radically transform current manufacturing approaches. It is estimated that by 2030, the market share of goods produced by additive manufacturing could be over 10 % in all sectors . For this reason, 3D printing, as an intelligent processing technique, is also seen as an essential ingredient in the era of industry 4.0—also referred to as “Fourth Industrial Revolution” .…”

Section: Introductionmentioning

confidence: 99%

“…[5] In recent years,3Dprinting has attracted much interest in the industrial and scientific community as it offers enormous potential to radically transform current manufacturing approaches.I ti s estimated that by 2030, the market share of goods produced by additive manufacturing could be over 10 %inall sectors. [6] Fort his reason, 3D printing,a sa ni ntelligent processing technique,isalso seen as an essential ingredient in the era of industry 4.0-also referred to as "Fourth Industrial Revolution". [7] Them ain advantages of 3D printing over traditional manufacturing techniques are: 1) rapid and low-cost production of prototypes and lowdemand goods 2) separation of production from product design 3) ecological production through optimal use of materials and reduction of waste volume 4) simple production of complex geometries with customized form factors (e.g.size and shape).…”

Section: Introductionmentioning

confidence: 99%

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It's in the Fine Print: Erasable Three‐Dimensional Laser‐Printed Micro‐ and Nanostructures

et al. 2020

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3D printing, on all scales, is currently a vibrant topic in scientific and industrial research as it has enormous potential to radically change manufacturing. Owing to the inherent nature of the manufacturing process, 3D printed structures may require additional material to structurally support complex features. Such support material must be removed after printing—sometimes termed subtractive manufacturing—without adversely affecting the remaining structure. An elegant solution is the use of photoresists containing labile bonds that allow for controlled cleavage with specific triggers. Herein, we explore state‐of‐the‐art cleavable photoresists for 3D direct laser writing, as well as their potential to combine additive and subtractive manufacturing in a hybrid technology. We discuss photoresist design, feature resolution, cleavage properties, and current limitations of selected examples. Furthermore, we share our perspective on possible labile bonds, and their corresponding cleavage trigger, which we believe will have a critical impact on future applications and expand the toolbox of available cleavable photoresists.

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Section: Introductionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

It's in the Fine Print: Erasable Three‐Dimensional Laser‐Printed Micro‐ and Nanostructures

et al. 2020

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“…often leading to time-consuming handcrafting, an open standard in optics and microscopy is clearly missing. Analogous to the revolution in biological imaging, the growth of 3D-printing and its price-drop along with inexpensive readily available opto-mechanical consumer components had big impact on existing development paradigms leading to "rapid prototyping" and therewith influencing industrial, academic and home environments [15,16,17]. In 2005, the open-source microcontroller Arduino [18] was introduced.…”

Section: Introduction Generalmentioning

confidence: 99%

UC2 – A Versatile and Customizable low-cost 3D-printed Optical Open-Standard for microscopic imaging

Diederich

Lachmann

Carlstedt

et al. 2020

Preprint

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With UC2 (You-See-Too) we present an inexpensive 3D-printed microscopy toolbox. The system is based on concepts of modular development, rapid-prototyping and all-time accessibility using widely available off-the-shelf optic and electronic components. We aim to democratize microscopy, reduce the reproduction crisis and enhance trust into science by making it available to everyone via an open-access public repository. Due to its versatility the aim is to boost creativity and nonconventional approaches. In this paper, we demonstrate a development cycle from basic blocks to different microscopic techniques. First, we build a bright-field system and stress-test it by observing macrophage cell differentiation, apoptosis and proliferation incubator-enclosed for seven days with automatic focussing to minimize axial drift. We prove versatility by assembling a system using the same components to a fully working fluorescence light-sheet system and acquire a 3D volume of a GFP-expressing living drosophila larvae. Finally, we sketch and demonstrate further possible setups to draw a picture on how the system can be used for reproducible prototyping in scientific research. All design files for replicating the experimental setups are provided via an open-access online repository (https://github.com/bionanoimaging/UC2-GIT) to foster widespread use.

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“…In den letzten Jahren hat der 3D‐Druck im industriellen und akademischen Bereich großes Interesse geweckt, da er ein enormes Potenzial zur radikalen Transformation aktueller Fertigungsansätze bietet. Schätzungen zufolge könnte der Marktanteil der durch die additive Fertigung produzierten Waren bis 2030 in allen Sektoren >10 % betragen . Aus diesem Grund gilt der 3D‐Druck, als intelligente Verarbeitungstechnik, auch als wesentlicher Bestandteil im Zeitalter der Industrie 4.0 – auch als “Vierte industrielle Revolution” bezeichnet .…”

Section: Introductionunclassified

“…Schätzungen zufolge kçnnte der Marktanteil der durch die additive Fertigung produzierten Waren bis 2030 in allen Sektoren > 10 %b etragen. [6] Ausd iesem Grund gilt der 3D-Druck, als intelligente Verarbeitungstechnik, auch als wesentlicher Bestandteil im Zeitalter der Industrie 4.0 -a uch als "Vierte industrielle Revolution" bezeichnet. [7] Die Hauptvorteile des 3D-Drucks gegenüber traditionellen Fertigungstechniken sind: 1) schnelle und kostengünstige Herstellung von Prototypen und Gütern mit geringer Nachfrage 2) Tr ennung der Produktion vom Produktdesign 3) çkologische Produktion durch optimalen Materialeinsatz und Reduzierung des Abfalls 4) einfache Herstellung komplexer Geometrien mit kundenspezifischen Formfaktoren (z.…”

Section: Introductionunclassified

Es ist im Kleingedruckten: Löschbare dreidimensionale lasergedruckte Mikro‐ und Nanostrukturen

et al. 2020

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Der 3D‐Druck in allen Dimensionen ist in der Wissenschaft‐ und Industrieforschung derzeit ein dynamisches Thema, da er ein enormes Potenzial hat, die Fertigungsindustrie radikal zu verändern. Wegen der dem Fertigungsprozess innewohnenden Besonderheit erfordern 3D‐Druckstrukturen häufig zusätzliches Trägermaterial, um komplexe Merkmale strukturell zu unterstützen. Dieses Trägermaterial muss nach dem Druck – manchmal auch subtraktive Fertigung genannt – entfernt werden, ohne die verbleibende Struktur zu beeinträchtigen. Eine elegante Lösung für dieses Problem ist der Einsatz von Photolacken mit labilen Bindungen, die eine kontrollierte Spaltung mit spezifischen Auslösern nach dem Druck ermöglichen. In diesem Kurzaufsatz diskutieren wir Design, Auflösung, Spaltungseigenschaften und aktuelle Einschränkungen ausgewählter Beispiele. Darüber hinaus teilen wir unsere Sichtweise auf mögliche labile Bindungen und den entsprechenden Spaltauslöser mit, von denen wir glauben, dass sie vielversprechendes Potenzial für zukünftige Anwendungen haben und das Repertoire der verfügbaren spaltbaren Photolacke sinnvoll erweitern werden.

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Predicting the future of additive manufacturing: A Delphi study on economic and societal implications of 3D printing for 2030

Cited by 408 publications

References 43 publications

It's in the Fine Print: Erasable Three‐Dimensional Laser‐Printed Micro‐ and Nanostructures

It's in the Fine Print: Erasable Three‐Dimensional Laser‐Printed Micro‐ and Nanostructures

UC2 – A Versatile and Customizable low-cost 3D-printed Optical Open-Standard for microscopic imaging

Es ist im Kleingedruckten: Löschbare dreidimensionale lasergedruckte Mikro‐ und Nanostrukturen

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