Materials Science

Innovative materials with new properties for next-generation devices

Introduction

New and innovative nanomaterials and their specific properties are key to new devices. The majority of inventions and related products are based on the structural and chemical analysis of these nanomaterials and the characterization of their fundamental properties, which typically occur only at the nanoscale. These nanomaterials need to be connected to the outside “macroworld” and can then be exploited for fundamentally new or next-generation devices, often at the intersection of nanotechnology materials science.

Nanocontacting nanomaterials

Fundamental analysis of structural, chemical, and physical properties

Embedding new materials into innovative, new or next-generation devices

Creating new and innovative devices with new nanomaterials

Your applications

There is a long history of new nanomaterials that have garnered significant research interest, such as high Tc-superconductors, magnetic multilayers, carbon nanotubes, nanowires, fullerenes, graphene, metamaterials, and other 1D- or 2D-materials. Some of these materials have been incorporated into innovative new devices across all scientific disciplines. These include small-scale fast transistor designs, hard disks, displays, molecular sieves, and 2D-lenses, or they have been exploited for improvements in the mechanical and electrical properties (hardness, elasticity, conductivity, etc.) of other materials. These advancements highlight the crucial role of nanotechnology materials science in driving technological progress.
Are you interested in more details and insights?
Application Note: Automated nanocontacting of randomly distributes 1D and 2D materials (.pdf)
Transforming randomly distributed 1D and 2D material into functional devices with the help of SEM mapping and innovative offline data preparation for direct-write lithography.
Application Note: Electrical in-situ Characterization of Au/Ni/Au-Nanowires with Nanomanipulators (.pdf)
Efficient alternative to traditional methods for electrical characterization of nanowires, utilizing in-situ measurements for quicker and more effective results compared to typical probing stations.
Application Note: Metalens Fabrication (.pdf)
Algorithmic pattern preparation for metalens fabrication achieves high throughput, bypassing design layout conversion, ensuring precision.
Our solutions

Our integrated solutions increase performance and connectivity. In any production environment.

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Materials Science

Our process

Precision: Our passion in workflow and nano fabrication

01

Needs analysis

Understanding your requirements is paramount. Our team conducts a thorough analysis, delving deep into your objectives, challenges, and expectations to ensure a tailored solution that seamlessly integrates with your workflow.
02

Expert consultation

With our experts by your side, we navigate through complexities together. We offer expert guidance and insights, collaborating closely to develop strategies that align perfectly with your goals and objectives.
03

Feasibility study

We conduct rigorous feasibility studies, meticulously evaluating options and assessing potential outcomes. Our goal is to deliver results that not only meet but exceed expectations, ensuring the seamless integration of solutions that drive your success.
04

RAITH membership

Unlock the full potential of seamless integration by becoming a RAITH member. Gain access to exclusive resources, support, and updates, empowering you to stay ahead of the curve and maximize the value of your integrated solutions.
References
We are supporting a variety of customers, ranging from global tech companies to Nobel-prize winning research facilities.

EBPG at University of California, Berkeley, Irfan Siddiqi

We interviewed Irfan Siddiqi, Professor at UC Berkeley, and asked him for his honest opinion about using a RAITH EBPG5150. Next to describing his user experience, he gives insight […]

EBPG at University of California, San Diego, Maribel Montero

The main user and specialist of the EBPG installed at UCSD is Maribel Montero. She provides insights into her daily work with the system and explains why she is a satisfied RAITH […]

PICOMASTER at University of Osnabrück, Prof Dr. Wolfgang Harneit, PD Dr. Carola Meyer, Mykola Fomin and Nidhin Varghese

A few weeks ago, we visited the University of Onsabrück, a proud user of a RAITH PICOMASTER. We are very happy to see another customer succeed, while challenging the frontiers of nanotechnology. […]

PICOMASTER at University of Konstanz, Dr. Matthias Hagner and Emilia Schütz

Visiting Dr. Matthias Hagner and Emilia Schütz at the University of Konstanz, Germany was a real pleasure! We asked them for their honest opinion using the PICOMASTER and got insights into […]

RAITH IONLINE and E-LINE Plus used at university of stuttgart in germany, marked on a grey map.

ionLINE Plus and eLINE Plus at the University of Stuttgart, Prof. Dr. Harald Gießen

“Our institute is focused on research in the field of ultrafast nanooptics. High quality and reproducible EBL is essential for the fabrication of nanopatterns for plasmonic structures and […]

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