Jeremy, Author at 鶹ýӳ /author/jeremy Mon, 29 Apr 2024 19:47:28 +0000 en-US hourly 1 https://wordpress.org/?v=6.7.2 /wp-content/uploads/2020/11/cropped-fathommfg-favicon-512px-32x32.png Jeremy, Author at 鶹ýӳ /author/jeremy 32 32 鶹ýӳ Celebrates National 3D Printing Day /fathom-celebrates-national-3d-printing-day Thu, 02 Dec 2021 19:22:18 +0000 /?p=4352 The post 鶹ýӳ Celebrates National 3D Printing Day appeared first on 鶹ýӳ.

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3D Printing // From Curiosity to Industry Transformation

December 3, 2021

fathom - 3d printing dayThe historical timeline for the invention and advancement of additive manufacturing runs at a rapid, permeating pace from the early 1980s to today. 1980 saw the first rapid prototype technique patent application by Dr. Hideo Kodama of Japan, yet, unfortunately, this project that described a layer-by-layer approach to manufacturing was not pursued. Yet, Dr. Kodama’s work opened the flood gates for innovative, cutting-edge technological developments. In the span of one decade, half of the additive manufacturing technologies we use today—Stereolithography (SLA), Selective Laser Sintering (SLS), and Fused Deposition Modeling (FDM)—were invented by true industry pioneers who recognized and pursued a better path forward for the future of manufacturing.

 

“Just like the advent and rapid innovation of technologies like the internet, artificial intelligence, and the Internet of Things (IoT), 3D Printing & Additive Manufacturing is at an inflection point of immense transformational developments. It’s humbling to have been part of setting a great foundation formed by revolutionary thinking by several forward thinkers dating back three decades. I am extremely excited about the future of the AM industry.” / / Scott Crump – Inventor of FDM & Co-Founder of Stratasys

For the past 40 years, industry innovators and leading-edge technology has proactively pushed the boundaries of innovative manufacturing solutions. The evolution of additive technology for rapid prototyping purposes has progressed into more downstream manufacturing applications. Additive manufacturing has turned countless concepts into impactful, industry-altering realities driven by speed, complexity and agility.

“In 2020, 3D printing will confirm its role as one of the most transformational and consequential technologies in the fourth industrial revolution.” / / Marco Annunziata –

Key Moments

  • 1980: First rapid prototyping patent application attempt / / Dr. Hideo Kodama
  • 1986: Stereolithography / / Charles Hull
  • 1988: Selective Laser Sintering / / Carl Deckard
  • 1989: Fused Deposition Modeling / / Scott Crump
  • 1995: Direct Metal Laser Sintering / / EOS
  • 1999: First 3D printed human organ
  • 2000: Objet / / PolyJet
  • 2016: HP / / Multi Jet Fusion

We are proud and honored to be a part of one of the most innovative industries. 鶹ýӳ salutes the accomplishments of the 3D printing pioneers. With an expectation for the future—from today to beyond—we’ve assembled six technology highlights to celebrate 3DP Day, and bring more awareness to the history of our industry.

Stereolithography (SLA)

sla - stereolithography
Stereolithography (SLA) is a 3D printing method that uses a UV laser and a resin to create parts. A single laser is directed to specific areas to cure the resin and create a solid pattern. SLA is popular because it can print parts with excellent precision.

SLA PartsInAsSoonAsNext-Day //Get A Quote

Selective Laser Sintering (SLS)

sls - selective laser sintering
Selective Laser Sintering (SLS) is a powder-based additive technology used to create models, prototypes and end-use parts in durable, engineering-grade thermoplastics. SLS is also capable of producing parts with finer details than most processes that use high-strength plastics.

SLS PartsInAsSoonAsTwo-Days / /Get A Quote

Fused Deposition Modeling (FDM)

fdm - fused deposition modeling
Fused Deposition Modeling (FDM) is a filament-based additive technology distributed by a moving print head that extrudes a heated thermoplastic material layer by layer onto a build platform. FDM is ideal for building concept models, functional prototypes and end-use parts.

FDM PartsInAsSoonAsNext-Day/ /Get A Quote

Direct Metal Laser Sintering (DMLS)

dmls - direct metal laser sintering
Direct Metal Laser Sintering (DMLS) or metal 3d printing is an additive layer technology that utilizes a laser beam to melt layers of metal powder on top of each other. DMLS prints parts with high accuracy with excellent surface quality and mechanical properties.

DMLSPartsInAsSoonAs Three-Days/ /Get A Quote

PolyJet (PJ)

polyjet - smooth detailed surface
PolyJet (PJ) is photopolymer-based jetting process that distributes material droplets layer by layer and then immediately cures the materials with a UV light. PJ is capable of creating smooth surfaces, thin walls, and complex geometries using a wide selection of materials.

PJPartsInAsSoonAsSame-Day / /Get A Quote

Multi Jet Fusion (MJF)

multi jet fusion - fast build times
Multi Jet Fusion (MJF) builds parts by repeatedly printing a thin layer of powder on a print bed. The inkjet array in the print carriage sweeps over the print bed, jetting two agents downward—a fusing agent and a detailing agent—ideal for printing complex, functional assemblies.

MJFPartsInAsSoonAsTwoDays/ /Get A Quote

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]]> 鶹ýӳ 4.0: Transforming the Future of Manufacturing /blog/fathom-40-transforming-the-future-of-manufacturing Tue, 10 Nov 2020 15:10:08 +0000 /?p=4073 Hartland, Wis., November 10, 2020 In 2020, four legacy companies – FATHOM, Midwest Composite Technologies, ICOMold and GPI Prototype –…

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In 2020, four legacy companies – FATHOM, Midwest Composite Technologies, ICOMold and GPI Prototype – combined to form 鶹ýӳ, the largest privately held digital manufacturing company in North America. As each held important industry positions individually, together they are uniquely poised to lead the digital manufacturing revolution. Moving forward, the companies will operate under the brand, 鶹ýӳ.

To fully understand and best serve our consolidated customer base, 鶹ýӳ underwent an independent consumer research study which unanimously recognized 鶹ýӳ for its responsive communication, speed, agility, and expertise. “This is a pivotal moment in our industry to drive innovation and change, the new 鶹ýӳ has been formed to drive a differentiated and impactful customer experience,” stated Rich Stump, Co-Founder and Chief Commercial Officer (CCO), 鶹ýӳ. To simply be recognized is not enough – 鶹ýӳ strives to be the absolute BEST at these important attributes which are critical to the success of its current and future customers.

Who is 鶹ýӳ?

The future of manufacturing is changing and 鶹ýӳ is leading that change by leveraging our proven differentiators to reimagine the customer experience. Built on Industry 4.0, 鶹ýӳ is the development of enhanced solutions backed by 35 years of industry expertise. This enables 鶹ýӳ to reimagine digital manufacturing by joining proven methodologies with new processes and technologies.

鶹ýӳ combines a broad array of advanced manufacturing technologies to provide a unique and impactful development process. We proactively push the boundaries of innovative solutions to turn concepts into reality. With clients ranging from industries within the Aerospace, Defense, Automotive, Technology, Medical & IOT sectors, 鶹ýӳ’s digital manufacturing capabilities are now integral to their product development process.

“We are very excited to announce and begin executing our 鶹ýӳ 4.0 strategy. This differentiated strategy focuses on speed, problem-solving, adaptive customer technical responsiveness and manufacturing to customers’ specifications (project complexity). All of this is backed by the industry’s most talented team and extensive capabilities. We believe this strategy will position 鶹ýӳ as the most unique and differentiated digital manufacturer in North America.” -Ryan Martin, CEO, 鶹ýӳ

As experts in additive and traditional manufacturing, our in-depth expertise begins with a technology agnostic approach. This inventive approach is backed by over 200,000 square feet of manufacturing space where we utilize:

  • 14 manufacturing production methods
  • 6 additive manufacturing technologies
  • Over 90 industrial grade / large format additive systems
  • A combination of over 125 mills, lathes, presses & 3D printers
  • Domestic CNC
  • Urethane casting
  • Domestic and International Injection Molding
  • Enhanced model finishing and assembly

Working with 鶹ýӳ provides immediate and comprehensive access to the most relevant equipment and experience in advanced manufacturing, engineering, and prototyping. We simply bring it all together, we boldly make the investments in our business and leverage our expertise to problem solve and deliver high-efficiency outcomes every time for our customers. See the new 鶹ýӳ at 鶹ýӳMfg.com.

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