HP and Dyndrite Partner to Create Next Generation 3D Printing Solutions

Seattle startup Dyndrite announced a strategic new partnership with Hewlett Packard (HP) to license Dyndrite’s geometric kernel technology and power the next generation cloud and edge-based digital manufacturing solutions. By combining HP’s end-to-end manufacturing management expertise with Dyndrite’s cutting edge additive technology, HP is hoping to deliver a software platform capable of powering the additive manufacturing (AM) factories of the future.

In 2019, 26-year old Harshil Goel’s company Dyndrite emerged out of stealth mode to reveal the world’s first GPU-native geometry engine, the Dyndrite Accelerated Geometry Kernel (AGK). Since geometry kernels were first introduced decades ago, they have been a crucial component in advancing 3D CAD/CAM/CAx software. Still, the company claimed this software have not kept pace with changing computational architectures, modern manufacturing technologies, and modern design needs. In order to address this challenge, Goel teamed up with veteran mathematicians, computer scientists, and mechanical engineers to develop a new solution that could level the playing field so that the manufacturing hardware no longer surpassed the software, facilitating the AM industry to reach its potential.

“The promise of 3D printing is to deliver unique parts and tools not possible through traditional methods, and do so on an industrial and global scale. For this to happen the industry must evolve and Dyndrite’s mission is to accelerate this change,” said Goel, now CEO of Dyndrite. “HP is a clear leader in industrial 3D printing and this collaboration speeds the game-changing impact our technology brings to the AM community at large. We applaud HP’s vision and look forward to a long and fruitful partnership for years to come.”

The new alliance builds on HP’s focus on expanding its software and data platform to help customers fully realize the transformative power of 3D printing technology. Through the development of new solutions that leverage the Dyndrite kernel, HP expects to improve efficiency, enhance performance and quality, enable mass-personalization, automate complex workflows, and create scalability and extensibility for continued partner and customer innovation. The ultimate goal for both companies is to change how the software works in the AM industries, driving new performance and functionality.

In that sense, Dyndrite claims that its fully native GPU Kernel easily handles additive specific computations such as lattice, support, and slice generation, in some cases reducing compute times from hours or days to minutes or seconds. For heavy use cases, the Dyndrite kernel is naturally scalable with access to additional GPU nodes, whether locally or in the cloud and provides both C++ and English-readable Python APIs, making application development accessible to a wide variety of users, including non-programmers such as students, mathematicians, and mechanical engineers. Probably what most interests HP is providing developers and original equipment manufacturer (OEM)s with a tool capable of representing all current geometry types, including higher-order geometries such as splines (NURBs), surface tessellations, volumetric data, tetrahedra, and voxels, allowing the development of next-generation applications and devices.

Using Dyndrite solution for additive manufacturing (Image courtesy of Dyndrite Corporation)

“Innovations in software, data intelligence, and workflow automation are key to unlocking the full potential of additive manufacturing,” said Ryan Palmer, Global Head of Software, Data and Automation of HP 3D Printing and Digital Manufacturing. “We are committed to advancing our digital manufacturing platform capabilities and this strategic collaboration with Dyndrite is an exciting next step on the journey.”

Building upon HP’s leading position as a behemoth technology firm, the company has acquired and partnered with dozens of companies to broaden its ecosystem and accelerate innovation and speed product development and supply chain efficiencies. HP also supports numerous 3D printing and digital manufacturing open standards to ensure data interoperability and choice for customers.

As a global provider of industrial-grade 3D printing and digital manufacturing solutions, HP offers systems, software, services, and materials science innovation to its customers. These solutions already include numerous software and data innovations, like its HP 3D Process Control and HP 3D Center software offerings.

Dyndrite’s new GPU-powered, python-scriptable, additive manufacturing build processor at work (Image courtesy of Dyndrite Corporation)

The new HP and Dyndrite partnership builds on a relationship that first began when HP became one of the inaugural members of the Dyndrite Developer Council, a group of leading 3D printing systems, software, and solutions providers. Along with Aconity3D, EOS, NVIDIA, Plural Additive Manufacturing, and Renishaw, HP was chartered with steering the future direction of the company’s roadmap. The driving force behind Goel’s venture is advancing the design and manufacturing software tools used today, which he said were built more than 30 years ago and are becoming bottlenecks to today’s creativity and productivity. Especially when compared to the manufacturing hardware that over the past few years has given rise to new design philosophies and a whole new paradigm of manufacturing production.

In this sense, Dyndrite is creating next-generation software for the design, manufacturing and additive marketplace, with the goal to dramatically increase the workflow and efficiency of AM technologies. With Dyndrite joining HP’s global ecosystem, HP advances 3D printing and digital manufacturing solutions, improving the overall experience for its customers and moving the industry forward.

The post HP and Dyndrite Partner to Create Next Generation 3D Printing Solutions appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.

HP and NTU Singapore Partner to Open New Corporate 3D Printing Research Laboratory

Launch of the HP-NTU Digital Manufacturing Corporate Lab. L-R: Ng Tian Chong, President of HP Asia Pacific and Japan; HP CTO Shane Wall; HP CEO Dion Weisler; Minister for Finance and Chairman of the NRF Heng Swee Keat; NTU President Prof Subra Suresh; NRF CEO Prof Low Teck Seng; NTU Vice President (Research) Prof Lam Khin Yong; and NTU Provost and Vice President (Academic) Prof Ling San.

HP Inc. has a solid presence in Asia, with expansions in recent years into Japan and China. But it’s been in Singapore since 1970, and the country is home to its Asia Pacific & Japan Regional Headquarters, global supply chain control towers, and print manufacturing. Now, the company is partnering with Nanyang Technological University (NTU Singapore) to open Singapore’s newest corporate research laboratory.

The HP-NTU Digital Manufacturing Corporate Lab, which is HP’s largest university research collaboration worldwide and first in Asia, is meant to help advance digital manufacturing and drive the economic development, innovation, skills, and technology necessary to advance the Fourth Industrial Revolution.

(Clockwise from bottom right) NTU Vice President (Research) Prof Lam Khin Yong and HP CTO Shane Wall signing the corporate lab partnership agreement, witnessed by HP CEO Dion Weisler; Minister for Finance and Chairman of the NRF Heng Swee Keat; NTU President Prof Subra Suresh; and NRF CEO Prof Low Teck Seng.

“The World Economic Forum estimates more than $100 trillion in value will be created by digital transformation across all industries in the next 10 years. HP is helping lead the development of the underlying technologies, like 3D printing, that will enable the benefits of this transformation,” said Dion Weisler, CEO and President, HP Inc. “Singapore is one of our key worldwide technology development and manufacturing centres in Print technology. The HP-NTU Digital Manufacturing Corporate Lab will significantly deepen our involvement here and serve as a nucleus for this ecosystem. We are proud to collaborate with NTU and we are looking forward to this becoming a blueprint for innovation, collaboration and economic progress.”

The $84 million lab is located at NTU and launched by Heng Swee Keat, Minister for Finance and Chairman of the National Research Foundation (NRF), which is a department within the Prime Minister’s Office. The NRF facilitates corporate labs setups through public-private partnerships, and its 13th lab, the HP-NTU Digital Manufacturing Corporate Lab, is the 7th located at NTU.

“Corporate laboratories are an integral part of our strategy to anchor joint R&D partnerships between our universities and companies in areas that have direct relevance to the growth of industries in Singapore,” said NRF CEO Professor Low Teck Seng. “The HP-NTU Digital Manufacturing Corporate Laboratory is significant to our long-term competitiveness in the advanced manufacturing sector, and ensures that we stay relevant in the Fourth Industrial Revolution that is evolving and growing rapidly world-wide.  It will also strengthen our capabilities to support multinational companies for expansion from Singapore into the region.”

Senior leadership from NTU and HP paid a courtesy call on Prime Minister Lee Hsien Loong, at the Istana, where they spoke about the new partnership between NTU and HP. L-R: NTU Vice President (Research) Prof Lam Khin Yong; Ng Tian Chong, President of HP Asia Pacific and Japan; HP CEO Dion Weisler; Prime Minister of Singapore Lee Hsien Loong; NTU President Prof Subra Suresh; HP CTO Shane Wall; and NTU Board of Trustee member Inderjit Singh. [Image: MCI]

The partnership between HP and NTU was signed today by HP’s CTO and Head of HP Labs Mr Shane Wall and NTU Vice President (Research) Professor Lam Khin Yong. Weisler, NTU President Professor Subra Suresh, and Guest-of-Honour Minister Keat. The 100 researchers and staff at the new lab will focus on digital manufacturing technologies, particularly 3D printing, artificial intelligence, cybersecurity and customization, machine learning, and new materials and applications.

According to Professor Suresh, NTU’s partnership with HP is “a significant milestone.”

“NTU has established deep capabilities and is a recognised leader in the areas of machine learning, data science and additive manufacturing,” said Professor Suresh. “These cutting-edge technologies are now an integral part of NTU’s education and research ecosystem, and the NTU Smart Campus serves as a test bed for them. This is aligned with Singapore’s vision of transforming into a Smart Nation.

“Together with HP Inc., a renowned innovator and leader in the tech industry, NTU seeks to address today’s fundamental challenges with solutions that will benefit both industry and society in Singapore and the world, such as developing automation that is capable of boosting manufacturing productivity.”

Minister Heng Swee Keat (center) looking at 3D printed automotive parts at the NTU-HP Digital Manufacturing Corporate Lab launch showcase.

The new lab, an important pillar of the university’s Smart Campus initiative, supports the country’s continuing drive toward industry transformation in 3D printing and digital manufacturing. The national strategy to develop a knowledge-based, innovation-driven economy and society, known as the Research, Innovation and Enterprise (RIE) 2020 Plan, lists Advanced Manufacturing and Engineering as one of its four technology domains, and the corporate lab will build on HP’s strong manufacturing and research capabilities to keep driving Singapore’s innovation.

“One out of every three jobs worldwide, more than 30% of global GDP, and nearly one-third of carbon emissions are related to manufacturing. We are committed to innovating with purpose, not only driving the technology breakthroughs that improve HP’s business but also contribute to creating economic opportunity and improving people’s lives,” said Weisler.

Included in the collaboration between HP and NTU Singapore is the development of educational curriculum covering design for additive manufacturing, which will cover such areas as user experience, security, data management, and business models.

Once formally launched, the HP-NTU Digital Manufacturing Corporate Lab will prioritize 15 separate projects in order to gain a better understanding of AI and machine learning, so that the 3D printers in the lab can autonomously predict and fix any issues. The projects also seek to better understand cybersecurity, as a way to improve end-to-end point security infrastructure and malware mitigation, and new materials and applications, like 4D printed, shape-changing smart systems, advanced polymers for manufacturing, and bioprinting models for fabricating tissues.

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[Images: NTU Singapore unless otherwise noted]

Victrex Partners with University of Exeter to Develop Next-Generation PAEK 3D Printing Materials

According to this year’s State of the Industry Annual Worldwide Progress Report on Additive Manufacturing, Wohlers Associates, Inc., additive manufacturing grew at ~21% last year, as the industry continues to create and develop the materials and technology to support it.  Polyaryletherketone (PAEK) is the name of a family of high-performance thermoplastics that includes polyetheretherketone (PEEK), and until recently has been mainly used in manufacturing technologies like injection molding and machining; another promising material is polyetherketoneketone, or PEKK.

Earlier this summer, UK material supplier Victrex , which specializes in high performance, high-temperature materials, announced that it had developed new PAEK 3D printing materials. Now, the company is collaborating with the University of Exeter to develop more next-generation PAEK polymers and composites.

“Victrex is keen to help overcome barriers to adoption and realise the full potential of PAEK/PEEK-based parts produced using AM technology. In order to open up the AM supply chain, we need to continue to work together to develop an eco-system that can address unmet industry needs and accelerate the adoption of PAEK/PEEK for AM technologies,” said Ian Smith, the Marketing Director at Victrex. “This cooperation with the University of Exeter is one part of Victrex´s efforts to construct that eco-system.”

Driven by Victrex R&D and the university’s Centre for Additive Layer Manufacturing (CALM), the two signed a strategic partnership to develop PAEK materials, while also working, according to Victrex, to improve “the performance of the underlying AM processes.”

“We are excited to start this partnership and continue our R&D work on development of high performance materials and AM processes for today’s and future needs and applications,” said Professor Oana Ghita, the leader of CALM at the University of Exeter. “The new PAEK polymer based materials will give designers and developers the opportunity to use the best performing polymers within AM processes and help make this dream a reality, transforming AM into a high-performance production tool.”

CALM, which specializes in the use of high-temperature and high-performance polymers and composite 3D printing materials, provides technical support and independent research for both academia and industry to develop next-generation AM materials for engineering. It actually began working with Victrex in a consortium, with funding from Innovate UK, to carry out R&D efforts for the advancement of 3D printing technologies, with a focus on affordable, high-temperature composites like PAEK for 3D printed aerospace applications.

Aerospace is one of the two main industries that Victrex believes will particularly benefit from its efforts during the initial adoption phase. PAEK and PEEK 3D printing materials can allow multiple parts to be consolidated in a single design, along with the production of new part designs that are too hard to machine. In terms of the medical sector, PAEK 3D printing will make it possible to make medical devices for the production of patient-specific implants.

Demo bracket 3D printed with PAEK resin

By improving technologies for the 3D printing of Victrex PAEK materials, design engineers can be privy to a wide range of new possibilities. Some of the potential benefits of using PAEK polymers for 3D printing include digital design and fabrication of parts for rapid prototyping, more design freedom for engineers who want to use the technology in high-performance applications, and improved economics, thanks to better material use in filament fusion, a decrease of machining waste, and better refresh rates in powder bed fusion 3D printing. Additionally, 3D printing solutions that have a higher performance can make it possible to produce customized, complex PAEK components.

What do you think? Discuss this news and other 3D printing topics at 3DPrintBoard.com or share your thoughts in the comments below. 

[Source: Medical Plastics News]