ATLANT 3Ds coverbillede
ATLANT 3D

ATLANT 3D

Forskning inden for nanoteknologi

Taastrup, Capital Region 12.481 følgere

Turning Digital Material Discovery intro Physical Reality. Atom by Atom.

Om os

ATLANT 3D is building the world’s most innovative advanced atomic-scale manufacturing platform that enables accelerated innovation of the advanced electronics and emerging technologies that will reshape the future of advance manufacturing for high precision systems. It is our vision to drive the age of atomic-scale manufacturing. We are committed to challenging existing barriers to innovation, such as long qualification and development cycles, large cleanrooms, and global supply-chain dependencies, to enable a future of autonomous network-centric manufacturing that will shape the future of technology. Our mission is to drastically reduce the cost and time of innovation cycles for a broad number of industries such as microelectronics, optics, photonics and novel displays, MEMS and sensors, advanced materials R&D, aerospace as well as emerging technologies. We support industry and academia with development services, prototyping and manufacturing, equipment development, and sales.

Branche
Forskning inden for nanoteknologi
Virksomhedsstørrelse
11-50 medarbejdere
Hovedkvarter
Taastrup, Capital Region
Type
Privat
Grundlagt
2018
Specialer
Nanotechnology, Additive manufacturing, rapid nanoprototyping, MEMS, Nanostructures, 3D printing, semiconductor, advanced materials og ALD

Produkter

Beliggenheder

Medarbejdere hos ATLANT 3D

Opdateringer

  • Se organisationssiden for ATLANT 3D

    12.481 følgere

    What if conducting regions in oxide materials could be patterned—without lithography? New research featured in Applied Physics Letters by AIP Publishing demonstrates a lithography-free method for patterning SrTiO₃-based two-dimensional electron gases (2DEGs) using Direct Atomic Layer Processing (DALP®). A 15 nm TiO₂ layer deposited with DALP® at ATLANT 3D was used to define conducting regions spatially. This enabled direct electrical measurements without post-growth microfabrication. The patterned 2DEG achieved: • Sheet carrier densities of approximately 5–7 × 10¹³ cm⁻² • Effective electrostatic tunability • Performance comparable to pulsed-laser-deposited SrTiO₃ heterostructures The results point toward a scalable, industry-compatible route for creating functional oxide structures, supporting future applications in oxide electronics, quantum materials, and advanced devices. 👉Read the full paper: https://hubs.ly/Q04sztG-0 🧑🔬Anshu Gupta, Karolis Parfeniukas, Amit Chanda, Thor H., Mira Baraket, Maksym Plakhotnyuk, Kasper Steen Pedersen, Felix Trier 💰 Felix Trier, Anshu Gupta, Amit Chanda and Thor H. acknowledge Villum Fonden for funding. 🌍 DTU Energy, DTU Chemistry, DTU - Technical University of Denmark #AtomicLayerProcessing #OxideElectronics #QuantumMaterials #AdvancedMaterials #ATLANT3D

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  • ATLANT 3D genopslog dette

    🚀 Strengthening #nanotechnology and #semiconductor R&D capabilities in #Slovakia We are excited to announce the installation of two state-of-the-art systems at the Institute of Institute of Electrical Engineering, Slovak Academy of Sciences: 🔹 NANOFABRICATOR™ Lite from ATLANT 3D – combining Atomic Layer Deposition (ALD) with the principles of 3D printing to enable precise, localized deposition of functional nanolayers. 🔹 PICOMASTER 100 from RAITH Group – enabling maskless (direct-write) lithography for rapid prototyping of microstructures with feature sizes down to 300 nm. Acquired through the STEPHANIK project, these technologies significantly expand our research infrastructure and create new opportunities for scientists, industry partners, and innovators working in advanced materials, micro- and nanotechnologies. They also support the development of technologies with potential applications in the space sector. By investing in cutting-edge research infrastructure, we are accelerating the journey from idea to experiment, from design to prototype, and from research to real-world innovation. 📖 Read the full story here: https://lnkd.in/dv9RGjTB This project is funded by the European Union – #NextGenerationEU through the Recovery and Resilience Plan for Slovakia / Plán obnovy (Project No. 09I02-03-V01-00038). #Nanotechnology #Semiconductors #Microfabrication #Innovation #ResearchInfrastructure

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  • ATLANT 3D genopslog dette

    The future of materials innovation depends on more than better AI models. AI is transforming how new materials are discovered. From machine learning to foundational models, researchers can now identify promising material candidates faster than ever before, unlocking opportunities across semiconductors, quantum, energy, advanced electronics, life sciences, advanced manufacturing and strategic industries. Yet one fundamental challenge remains. Discovering a promising material is only the beginning. Turning that discovery into a physical material that can be produced, tested, validated, and scaled is still a slow, fragmented, and resource-intensive process. The gap between digital discovery and physical validation continues to be one of the biggest barriers to accelerating innovation. We believe the next breakthrough won't come from AI alone. It will come from connecting AI directly to the physical world to enable material discoveries to move from prediction to validation to industrialization with unprecedented speed. That vision has been driving our team at ATLANT 3D. Soon, we will unveil the world's first and only physical platform for AI-driven materials discovery. Designed to create the physical execution loop that connects AI-generated discoveries to breakthrough materials and novel devices that can be scaled in the real world. Follow ATLANT 3D to be among the first to see what's coming. #AI #AIforScience #MaterialsDiscovery #AdvancedManufacturing #DeepTech #ATLANT3D

  • ATLANT 3D genopslog dette

    The future of materials innovation depends on more than better AI models. AI is transforming how new materials are discovered. From machine learning to foundational models, researchers can now identify promising material candidates faster than ever before, unlocking opportunities across semiconductors, quantum, energy, advanced electronics, life sciences, advanced manufacturing and strategic industries. Yet one fundamental challenge remains. Discovering a promising material is only the beginning. Turning that discovery into a physical material that can be produced, tested, validated, and scaled is still a slow, fragmented, and resource-intensive process. The gap between digital discovery and physical validation continues to be one of the biggest barriers to accelerating innovation. We believe the next breakthrough won't come from AI alone. It will come from connecting AI directly to the physical world to enable material discoveries to move from prediction to validation to industrialization with unprecedented speed. That vision has been driving our team at ATLANT 3D. Soon, we will unveil the world's first and only physical platform for AI-driven materials discovery. Designed to create the physical execution loop that connects AI-generated discoveries to breakthrough materials and novel devices that can be scaled in the real world. Follow ATLANT 3D to be among the first to see what's coming. #AI #AIforScience #MaterialsDiscovery #AdvancedManufacturing #DeepTech #ATLANT3D

  • The future of materials innovation depends on more than better AI models. AI is transforming how new materials are discovered. From machine learning to foundational models, researchers can now identify promising material candidates faster than ever before, unlocking opportunities across semiconductors, quantum, energy, advanced electronics, life sciences, advanced manufacturing and strategic industries. Yet one fundamental challenge remains. Discovering a promising material is only the beginning. Turning that discovery into a physical material that can be produced, tested, validated, and scaled is still a slow, fragmented, and resource-intensive process. The gap between digital discovery and physical validation continues to be one of the biggest barriers to accelerating innovation. We believe the next breakthrough won't come from AI alone. It will come from connecting AI directly to the physical world to enable material discoveries to move from prediction to validation to industrialization with unprecedented speed. That vision has been driving our team at ATLANT 3D. Soon, we will unveil the world's first and only physical platform for AI-driven materials discovery. Designed to create the physical execution loop that connects AI-generated discoveries to breakthrough materials and novel devices that can be scaled in the real world. Follow ATLANT 3D to be among the first to see what's coming. #AI #AIforScience #MaterialsDiscovery #AdvancedManufacturing #DeepTech #ATLANT3D

  • We're proud to announce that ATLANT 3D has been selected for the 2026 KAUST (King Abdullah University of Science and Technology) ScaleX Program. Our CEO & Founder, Dr. Maksym Plakhotnyuk, and CTO Dr. Mira Baraket, will represent ATLANT 3D throughout the program as we expand our engagement with Saudi Arabia's rapidly growing innovation ecosystem. The KAUST ScaleX Program is designed to help high-growth global technology companies accelerate their expansion and build strategic partnerships in the Kingdom. Being selected marks another important milestone in ATLANT 3D's global growth journey and reinforces our commitment to the Middle East, one of the world's most dynamic regions for deep technology, advanced manufacturing, and semiconductor innovation. As investment in science, technology, and industrial transformation continues to accelerate across the region, we look forward to collaborating with researchers, industry leaders, and innovators to help bridge the gap between breakthrough research and scalable manufacturing. Through ATLANT 3D's integrated technology platform infrastructure, we're connecting scientific discovery with autonomous physical experimentation, transforming breakthrough research into experimentally validated, manufacturable technologies. By accelerating the development of novel devices and advanced materials, we're helping strengthen regional manufacturing capabilities, foster technology sovereignty, and accelerate the journey from research to industrial deployment. This opportunity brings us another step closer to our vision of enabling future innovators to transform scientific discoveries into real-world technologies, atom by atom®, while providing the autonomous physical infrastructure for the next generation of AI-driven innovation. We're honored to contribute to Saudi Arabia's Vision 2030 by advancing innovation, fostering collaboration, and supporting the future of advanced manufacturing. A sincere thank you to KAUST, Ministry of Investment, SAB, and INSKIP for this opportunity. We look forward to the partnerships, innovation, and impact ahead. #ATLANT3D #KAUST #ScaleX #SaudiArabia #Vision2030 #DeepTech #AdvancedManufacturing #Semiconductors #MaterialsInnovation #AI #Innovation

  • ATLANT 3D Becomes a Founding Member of CuspAI's AI Materials Foundry! Today we're proud to announce that ATLANT 3D is a Founding Member of CuspAI's newly launched AI Materials Foundry. Cusp AI announced today establishing the AI Materials Foundry, a global network bringing together leaders in AI, compute, scientific data, laboratories and advanced manufacturing to accelerate AI-driven materials discovery. The initiative includes more than 45 founding partners, including NVIDIA, Meta, Samsung Electronics, Hyundai Motor Group, Henkel, Applied Materials, Tokyo Electron, Lam Research and many others. At ATLANT 3D, we believe the next era of materials innovation requires more than AI-generated predictions. It requires autonomous physical infrastructure capable of transforming digital materials designs into experimentally synthesized and validated, device-ready technologies that can ultimately be manufactured at industrial scale. Through this partnership, ATLANT 3D is connecting its A-Hub™ autonomous materials foundry to CuspAI's AI Materials Foundry. A-Hub™ is ATLANT 3D's autonomous materials foundry, designed to transform AI-generated materials into experimentally validated, device-ready technologies through integrated synthesis, characterization, fabrication and AI-orchestrated continuous learning. At the core of every A-Hub™ is ATLANT 3D's NANOFABRICATOR® platforms, powered by our proprietary DALP® technology, enabling software-defined, programmable atomic-scale manufacturing with precision, repeatability and continuous learning from every experiment. Together, CuspAI's AI Materials Foundry provides the intelligence for AI-driven materials discovery, while ATLANT 3D's A-Hub™ provides the autonomous physical foundry where those discoveries are synthesized, characterized, fabricated and experimentally validated. Connecting these capabilities creates a continuous pathway from AI-generated materials to real-world technologies. We believe the future of materials innovation depends on connecting AI-driven discovery with autonomous physical experimentation. By integrating intelligent materials design with autonomous physical execution, we can dramatically accelerate the journey from digital prediction to validated devices and scalable manufacturing. We're excited to connect ATLANT 3D's A-Hub™ with CuspAI's AI Materials Foundry and help build the autonomous infrastructure that will enable the next generation of materials innovation. Atom by atom®. Official announcement: https://lnkd.in/ezSKAKgi #AI #AIforScience #MaterialsDiscovery #DeepTech #AdvancedManufacturing #AutonomousLabs #ATLANT3D #CuspAI #PhysicalAI #Semiconductors

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  • We're excited to announce that a leading global AI hyperscaler has selected ATLANT 3D's NANOFABRICATOR® LITE platform to support its AI-driven materials discovery laboratory. As AI continues to transform materials discovery, one of the biggest challenges is rapidly fabricating and experimentally validating AI-generated predictions. This collaboration reflects the growing demand for integrated workflows that connect computational materials design with real-world experimentation. ATLANT 3D's full-stack materials innovation platform combines AI-enabled materials workflows, DALP® OS software, atomic-scale manufacturing, rapid experimental validation, and scalable infrastructure, helping innovators dramatically accelerate the journey from digital materials design to physical innovation. We're proud to contribute to the next generation of AI-driven materials discovery and help accelerate breakthroughs across semiconductors, advanced packaging, photonics, energy technologies, quantum technologies, and beyond. Read the full press release here: 👉 https://hubs.li/Q04pBLF70 #ATLANT3D #DALP #Nanofabricator

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  • Another milestone for Atomic Layer Manufacturing. We are proud to see a new publication in Nature Communications Materials demonstrating what is believed to be the first semiconductor solar-cell stack fabricated using atomic-layer additive manufacturing with Direct Atomic Layer Processing (DALP®) technology developed by FAU Erlangen-Nürnberg in collaboration with ATLANT 3D. Congratulations to Prof. Julien Bachmann, cofounder of ATLANT 3D, Micah Mc Naire, and all collaborators on this outstanding achievement. What makes this work particularly significant is not only the fabrication of a functioning ultrathin solar cell, but the successful development, optimization, and integration of four functional semiconductor materials into a complete device using atomic-layer additive manufacturing. This represents an important step beyond thin-film deposition. It demonstrates the ability to engineer complete material systems with atomic precision, enabling rapid validation of novel materials directly within functional devices. As AI accelerates the discovery of millions of new material candidates, the industry’s greatest challenge is no longer prediction - it’s physical validation. New materials only create value when they can be synthesized, integrated into devices, characterized, tested, and translated into manufacturable technologies. At ATLANT 3D, we are building the infrastructure to bridge this gap. Our Direct Atomic Layer Processing (DALP®) platform enables programmable atomic-scale manufacturing, providing the physical interface between AI-driven discovery and real-world device fabrication. This publication is another demonstration of how atomic-scale manufacturing can accelerate innovation across photovoltaics, semiconductors, photonics, MEMS, quantum technologies, and beyond. We thank all researchers and partners involved in this collaboration and look forward to enabling the next generation of materials and device innovation. From materials discovery to functional devices. Atom by atom. #ATLANT3D #DALP #AtomicLayerManufacturing #PhysicalAI #MaterialsDiscovery #Semiconductors #SolarCells #AdvancedManufacturing #AIforScience #Innovation

    New article by Micah Mc Naire in Communications Materials: the first ever #solar cell #semiconductor stack 3D-printed with atomic resolution! Technology DALP / ALAM (direct atomic layer #processing / atomic-layer #additive #manufacturing) developed at FAU Erlangen-Nürnberg' CTFM lab with ATLANT 3D. Precursor from David Zanders in Anjana Devi's group at IFW Dresden / Technische Universität Dresden. With contributions from Sanja Pannen, Jonas Englhard, Peichun Liao Ryan Crisp and Selina Kern. #3Dprinting #ALDep #solarcells #atomicprocessing #thinfilms #materials #chemistry #ChemPrint #CorMic Deutsche Forschungsgemeinschaft (DFG) - German Research Foundation European Research Council (ERC) FAU Solar FAU Profile Center New Materials and Processes (FAU NMP) https://lnkd.in/eK4R9tjJ

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