Special-Edition Viewpoints Address The Pandemic Crisis

In the wake of the covid-19 pandemic, pathways and opportunities in technology commercialization are undergoing dramatic transformation on many fronts. To address Explorer clients' urgent need to understand both the near- and longer-term impacts, we are providing a special set of analyses for May and June about the pandemic's impact on technology commercialization. Because the developments we describe affect multiple technologies, we have organized our standard Technology Areas into six consequential technology domains. (Read the full announcement about these special analyses.)

  • The May 2020 documents identify a wide range of key forces that will likely have a major influence on prospects for the six technology domains, imagining a plausible range of alternative outcomes that these forces could have during the coming five to ten years. These outcomes serve as building blocks for creating effective responses to the pandemic.
  • The June 2020 documents provide a scenarios-based analysis for each of the six technology domains, with emphasis on how the key uncertain forces might interact with and influence commercialization pathways in alternative postpandemic futures. Also available is a special presentation—The Pandemic Crisis: Scenarios for the Future of Technology Development—summarizing the scenarios and their implications for the six technology domains.

We encourage clients to engage with all six special-edition Viewpoints in both May and June to gain a broad view of potential changes and opportunities in technology commercialization. Please contact us if you do not already have access to all six technology domains, and we will be happy to provide you with the remaining articles in the collection.


Archived Viewpoints

About This Technology

3D printing is a layer-by-layer production process that creates solid three-dimensional objects from the bottom up. Some people in the industry use the related term additive manufacturing. This layer-by-layer production makes use of 3D-imaging technology, computer-aided-design software, and computer-controlled-deposition processes that deposit and then consolidate materials. 3D printing is the three-dimensional equivalent of printing ink on paper, except that instead of ink, the materials are typically thermoplastics, metals, and ceramics, though printing biological components is a rapidly growing area of research and development. The process of 3D printing is in contrast to traditional subtractive-manufacturing methods such as drilling, cutting and machining, and the ability to produce objects from a CAD file enables rapid part and model manufacture without the need for traditional tools or dies. What makes 3D printing a disruptive technology is its ability to provide high levels of customization and to produce more complex and small numbers of objects much more cheaply than is often possible with traditional manufacturing approaches.

The early commercialization of 3D printing was in rapid prototyping (or modeling), and this application is still important for 3D printing. Customers of rapid-prototyping machines appreciated the ability to turn around new models and designs for testing quickly and did not need them to be robust. However, the more recent expansion of 3D-printing techniques and materials to encompass thermoplastics and metals is enabling a transition from rapid modeling to rapid tooling and rapid manufacturing, in which the final printed object can see use in real-world applications. Applications exist across virtually all industry sectors—such as aerospace, the automotive sector, consumer goods, defense, electronics, health care, recreation, and toys—but in each application the impact of the technology will depend on the availability of compatible printable materials. Despite the expansion of material choices, cost, speed, material quality, and structural integrity remain limiting factors in industry acceptance of 3D printing.

3D printing has the potential to disrupt industries and change the manufacturing paradigm in situations in which speed, customization, and short production runs are key features. 3D printing may enable artifacts and combinations of materials that are hard if not impossible to produce with other methods: electronics integrated into biological tissue, for example. Low-cost machines, local service bureaus, and access to online stores of 3D object files can enable new business models of production and empower individuals to produce objects to order without necessarily having any manufacturing expertise. However, users' ability to scan and then print any object could lead to copyright infringement and legal disputes; the 3D printing of usable guns is one example. Integrating imaging technology and 3D printing at the point of use could upset traditional supply chains, especially where speed of production is a key need. Arrays of 3D-printing machines could, in theory, lead to large numbers of micro factories that produce in volume, disrupting other large-scale manufacturing processes. This Technology Map focuses on the industrial and enterprise use of 3D printing rather than on consumer printing.