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NanoBuilder rapid prototyping software
Thermo Scientific NanoBuilder Software is a tool for the systematic planning and construction of multi-layer nanodevices. This is done by dividing CAD files into ordered projects, facilitating the generation of complex structures that previously were tedious or even impossible to build. NanoBuilder Software allows for accurate patterning of large and complex nanostructures on multiple sites, supporting all DualBeam (focused ion beam scanning electron microscopy, FIB-SEM) patterning processes: FIB milling, gas-assisted FIB milling, FIB induced deposition, and electron-induced deposition.
Fully automated
Fully automated job execution, stage navigation, milling, and deposition.
FIB and GIS
Focused ion beam (FIB) and gas injection systems (GIS) optimized.
CAD
CAD-based prototyping.
Alignment
Automated alignment and drift control.
Patterning sequences
Plan patterning sequences on your desktop PC using Thermo Scientific NanoArchitect Software.
Style Sheet for Products Table Specifications
| GDSTODB | NanoBuilder |
Import GDSII files | ✓ | ✓ |
GDSII viewer | ✓ | ✓ |
Convert to Thermo Scientific stream files | ✓ | |
Automated alignment and drift control | ✓ | |
Automated job execution | ✓ | |
Multi-site support | ✓ | |
Integrated editing of microscope properties | ✓ | |
Alignment without exposing the site of interest | ✓ |
Style Sheet for Komodo Tabs
Slot racetrack resonator, consisting of an 800 nm wide trench. The
slot is a second trench, 300 nm wide, in the exact center of the first trench.
The overall structure is 100 x 50 μm.
Close-up of the 300 nm wide slot inside the 800 nm wide racetrack.
Note the excellent alignment.
Line strip.
Nanofluidics building block.
The NanoBuilder UI during layer parameter definition.
The patterned area.
Note that no extra exposure occurred during alignment.
Slot racetrack resonator, consisting of an 800 nm wide trench. The
slot is a second trench, 300 nm wide, in the exact center of the first trench.
The overall structure is 100 x 50 μm.
Close-up of the 300 nm wide slot inside the 800 nm wide racetrack.
Note the excellent alignment.
Line strip.
Nanofluidics building block.
The NanoBuilder UI during layer parameter definition.
The patterned area.
Note that no extra exposure occurred during alignment.
基礎材料研究
新材料開発では、その物理的および化学的特性を最大化するために、より小さなスケールでの研究がなされています。電子顕微鏡は、マイクロスケールからナノスケールのさまざまな材料特性について重要な情報を研究者に提供します。
In situ試験
加熱、冷却、液中での再結晶化、グレイン成長、相変態などの動的プロセスの基本原理を理解するには、電子顕微鏡を用いて、微細構造変化を直接かつリアルタイムで観察する必要があります。
ナノスケールのプロトタイピング
技術の微細化が進むにつれ、ナノスケールのデバイスや構造に対する需要はますます高まっています。DualBeam装置を使用した3Dナノプロトタイピングにより、マイクロスケールおよびナノスケールの機能的構造試作の設計、作製、および検査を迅速に行うことができます。
Style Sheet to change H2 style to p with em-h2-header class
材料科学向けの
電子顕微鏡サービス
最適なシステム性能をお届けするため、当社は国際的なネットワークで、分野ごとのサービスエキスパート、テクニカルサポート、正規交換部品などを提供しています。
Style Sheet for Support and Service footer
Style Sheet for Fonts
Style Sheet for Cards