Additive Manufacturing: Definition, Process, Uses, and Materials

In contrast, traditional manufacturing methods may excel in mass production, high-volume manufacturing, and in yielding specific material properties. Overall, additive manufacturing represents a paradigm shift in manufacturing by enabling new possibilities for design, production, and efficiency. Is Additive Manufacturing the

Strong yet ductile nanolamellar high-entropy alloys by additive manufacturing

Additive manufacturing produces net-shaped components layer by layer for engineering applications 1,2,3,4,5,6,7.The additive manufacture of metal alloys by laser powder bed fusion (L-PBF) involves

High-resolution tomographic volumetric additive

To achieve high-resolution tomographic AM, six laser diodes were coupled in a square core ber (LS 70 m) of numerical fi = μ aperture NAS 0.22, yielding a theoretical optical resolution of. 23 μm

FIT AG: High-volume metal Additive Manufacturing

In the summer of 2015 FIT AG announced that it was investing €20 million in a new purpose built factory specifically designed for the Additive Manufacturing of high volume components. A year later, when Metal Additive Manufacturing magazine visited the company, construction of the first of the new futuristic looking production buildings

Divergent Technologies Eyes High-Volume, Optimized

BMW Expands Use of Additive Manufacturing to Foster Production Innovations The BMW Group is manufacturing many work aids and tools for its own production system using various 3D printing processes, with items such as tailor-made orthoses for employees, teaching and production aids, and large, weight-optimized robot

High-Volume Additive Manufacturing of Fluid Power Systems

The meaning of additive manufacturing is to add material only where it is needed. Thanks to our ability to design fluid parts with this new additive manufacturing approaches, we are able to reduce the weight of the part, use less material, produce it faster compared to conventional methods. And, we are moving now to high-volume production that

Defects Suppression and Mechanism in Additive Manufacturing High-volume

With the increasingly stringent requirements of aerospace and transportation on high-performance materials, high-volume fraction ceramic reinforced metal matrix composites (MMCs) have become a developing trend. Taking the advantages of laser additive manufacturing in-situ processing multi-component materials, 15vol.% SiC ceramic

Alloy design of Ni-based superalloy with high γ′ volume fraction

Additive manufacturing (AM) has attracted attention in the aerospace and gas turbine industries as a viable alternative to the established investment casting process because AM techniques constitute powerful tools for producing metallic components with complex shapes. However, superalloys with high γ′ volume fractions (> 40–50%) are

Damage-tolerant, corrosion-resistant high entropy alloy with high strength and ductility by laser powder bed fusion additive manufacturing

Additive manufacturing of high-strength CrMnFeCoNi-based high entropy alloys with TiC addition Intermetallics, 109 ( 2019 ), pp. 162 - 166, 10.1016/j termet.2019.04.005 View PDF View article View in Scopus Google Scholar

3D PRINTING We developed a method, computed axial Volumetric additive manufacturing via tomographic reconstruction

Volumetric additive manufacturing via tomographic reconstruction. Brett E. Kelly1,2*, Indrasen Bhattacharya3*, Hossein Heidari1*, Maxim Shusteff2, Christopher M. Spadaccini4, Hayden K. Taylor1. Additive manufacturing promises enormous geometrical freedom and the potential to combine materials for complex functions.

Experimental characterization of a hybrid impinging microjet-microchannel heat sink fabricated using high-volume metal additive manufacturing

High volume micro additive manufacturing and 3d printing High heat flux Microjets and microchannels Nomenclature A area, m 2 COP coefficient of performance, - C p specific heat capacity, J/kgK P pressure, kPa

GE Aviation Selects Auburn, AL for High Volume Additive Manufacturing

Will employ more than 300 at full capacity. AUBURN, AL –– GE Aviation, a global leader in jet engine and aircraft system production, today announced plans to bring high volume additive manufacturing to its facility in Auburn, AL. This facility will be the first of its kind to mass produce additive components for the jet propulsion industry.

Virtual Volumetric Additive Manufacturing (VirtualVAM)

Tomographic volumetric additive manufacturing (VAM) produces arbitrary 3D geometries by exposure of a rotating volume of photopolymer resin to tomographically-patterned illumination. This enables high speed, layer-less printing of parts from a wide range of photopolymers not amenable to layer-by-layer processes.

Alloy design of Ni-based superalloy with high γ′ volume fraction suitable for additive manufacturing

The alloy design of Ni-based superalloy with high γ′ volume fraction has been studied to be suitable for additive manufacturing (AM) by using thermodynamic calculations.The design approach intended to increase AM processability while maintaining the high-temperature strength of the reference superalloy René 80.

High-fidelity tomographic additive manufacturing for large-volume

We would like to introduce the definition of high attenuation resin and large print scale in tomographic VAM empirically: For volumetric additive manufacturing (VAM) printing, a 10 mm transmittance lower than 10% can be defined as a high-attenuation resin, and a print in a cylinder with a diameter larger than 100 mm can be defined as large-scale.

High-fidelity tomographic additive manufacturing for large-volume and high

Tomographic volumetric additive manufacturing (VAM) is an emerging technology that employs patterns projected from all angles surrounding the build volume to tomographically reconstruct a three-dimensional (3D) exposure dose distribution and subsequently photopolymerize the entire target structure.

Additive Manufacturing | Vol 81, 5 February 2024

Solid-state production of uniform metal powders for additive manufacturing by ultrasonic vibration machining. Yaoke Wang, Malachi Landis, Clement Ekaputra, Valeria Vita, Ping Guo. Article 103993. View PDF. Article preview.

A new hybrid heat sink with impinging micro-jet arrays and

This work describes the design of a high-performance water cooled micro heat sink for thermal management of high heat flux microelectronics. The design process leverages advances in additive manufacturing to produce flow channels and composite material structures that are not possible with traditional machining processes. The micro heat sink

Strong yet ductile nanolamellar high-entropy alloys by additive

Additive manufacturing produces net-shaped components layer by layer for engineering applications 1,2,3,4,5,6,7.The additive manufacture of metal alloys by laser powder bed fusion (L-PBF) involves

Volumetric additive manufacturing via tomographic

We completed a centimeter-scale geometry ( Fig. 1, C to E) in less than 1 min. Using intensities in the range of ~0.1 to 2.0 mW/cm 2, we produced a large array of geometries ( Figs. 1 and 2 and fig. S3), with

Addithive

High production volume additive manufacturing is poised to have a transformative effect on traditional manufacturing methods. By offering unparalleled design freedom, reduced lead times, and cost-effective small-to-medium production runs, additive manufacturing technologies like Multi Jet Fusion, CLIP, and Binder Jetting are

Volumetric additive manufacturing via tomographic

The speed, geometry, and surface quality limitations of additive processes are linked to their reliance on material layering. We

Alloy design of Ni-based superalloy with high γ′ volume fraction suitable for additive manufacturing

alloy design of Ni-based superalloy with high γ′ volume fraction has been studied to distribution and residual stresses during high-energy beam additive manufacturing [14,15, 16, 17]. There

High fidelity volumetric additive manufacturing

Abstract. Volumetric additive manufacturing (VAM) promises a significantly improved regime of capabilities for 3D printing. Computed Axial Lithography (CAL) is a photopolymerization-based tomographic VAM process which constructs objects by projecting systematic illumination patterns into a container of photosensitive

Additive manufacturing, explained | MIT Sloan

Additive manufacturing has some distinct benefits. With traditional manufacturing, the entire supply chain can take months and require an investment — sometimes millions or billions of dollars — that can only be recouped by high-volume production. With additive manufacturing, much of the supply chain''s intermediate steps

Four Applications of High-Volume Additive Manufacturing

1. High-Mix Manufacturing. The real power of high-volume additive manufacturing is the ability to support a high mix of products. By eliminating tooling, a single 3D printing system and the process can produce numerous products, allowing a mix of different products or designs in a batch. 2.

A new hybrid heat sink with impinging micro-jet arrays and microchannels fabricated using high volume additive manufacturing

A new hybrid heat sink with impinging micro-jet arrays and microchannels fabricated using high volume additive manufacturing January 2017 DOI: 10.1109/SEMI-THERM.2017.7896927

Deconvolution volumetric additive manufacturing | Nature

Currently, volumetric additive manufacturing prints suffer from systematic undercuring of fine μ = 1750 cP) each at two projector power settings (low power: 4.9 mW/cm 2; high power: 9.8 mW/cm

Breaking the mould: achieving high-volume production output

The study aims to examine a discrepant industrial case that demonstrates how to achieve economies of scale with additive manufacturing (AM), thereby expanding the scope of AM beyond high-variety, customised production contexts.,Abductive reasoning is applied to analyse a case of using AM to compete with conventional production,

Additive Manufacturing vs. Traditional

Additive manufacturing is 3D printing on an industrial scale. In high-volume 3D printing, multiple production lines with high-throughput processes are used to produce a range of products. Today''s advanced