#ultrahighvacuum — Public Fediverse posts

Exciting News!

We're thrilled to announce that our latest preprint is now available on arXiv!

📄 Title: 3D-printed components for electron-ion trapping: Tests of functionality and ultra-high vacuum compatibility

🔗 Read the full abstract here: https://arxiv.org/abs/2509.06537

In this work, we demonstrate the ultra-high vacuum (UHV) compatibility of a microwave-driven electron trap and an atomic oven fabricated through 3D printing via Laser Powder Bed Fusion (L-PBF). Our findings show that these components can support stable, narrow-band, high-amplitude oscillations of the electric field at the electrodes, making them suitable for simultaneous trapping of ions.

Key highlights include:
- Successful integration of the trap into a coaxial microwave cavity
- Effective performance of the atomic oven in UHV environments with minimal outgassing
- Investigation of long-term pressure variations and their potential impact on electron-ion trapping experiments

These results pave the way for future experiments in microwave detection and the study of low-energy ion-electron interactions at room temperature.

A big thank you to our collaborators and the entire team:
Vineet Kumar, Niklas V. Lausti, Jiří Hajnyš, Ivan Hudák and David Motyčka, Adam Jelínek

We're excited about the potential of this research and look forward to your feedback!

#3DPrinting #UltraHighVacuum #ElectronIonTrapping #MicrowaveDetection #academia #QuantumPhysics #physics_news #preprint

Exciting News!

We're thrilled to announce that our latest preprint is now available on arXiv!

📄 Title: 3D-printed components for electron-ion trapping: Tests of functionality and ultra-high vacuum compatibility

🔗 Read the full abstract here: https://arxiv.org/abs/2509.06537

In this work, we demonstrate the ultra-high vacuum (UHV) compatibility of a microwave-driven electron trap and an atomic oven fabricated through 3D printing via Laser Powder Bed Fusion (L-PBF). Our findings show that these components can support stable, narrow-band, high-amplitude oscillations of the electric field at the electrodes, making them suitable for simultaneous trapping of ions.

Key highlights include:
- Successful integration of the trap into a coaxial microwave cavity
- Effective performance of the atomic oven in UHV environments with minimal outgassing
- Investigation of long-term pressure variations and their potential impact on electron-ion trapping experiments

These results pave the way for future experiments in microwave detection and the study of low-energy ion-electron interactions at room temperature.

A big thank you to our collaborators and the entire team:
Vineet Kumar, Niklas V. Lausti, Jiří Hajnyš, Ivan Hudák and David Motyčka, Adam Jelínek

We're excited about the potential of this research and look forward to your feedback!

#3DPrinting #UltraHighVacuum #ElectronIonTrapping #MicrowaveDetection #academia #QuantumPhysics #physics_news #preprint

Exciting News!

We're thrilled to announce that our latest preprint is now available on arXiv!

📄 Title: 3D-printed components for electron-ion trapping: Tests of functionality and ultra-high vacuum compatibility

🔗 Read the full abstract here: https://arxiv.org/abs/2509.06537

In this work, we demonstrate the ultra-high vacuum (UHV) compatibility of a microwave-driven electron trap and an atomic oven fabricated through 3D printing via Laser Powder Bed Fusion (L-PBF). Our findings show that these components can support stable, narrow-band, high-amplitude oscillations of the electric field at the electrodes, making them suitable for simultaneous trapping of ions.

Key highlights include:
- Successful integration of the trap into a coaxial microwave cavity
- Effective performance of the atomic oven in UHV environments with minimal outgassing
- Investigation of long-term pressure variations and their potential impact on electron-ion trapping experiments

These results pave the way for future experiments in microwave detection and the study of low-energy ion-electron interactions at room temperature.

A big thank you to our collaborators and the entire team:
Vineet Kumar, Niklas V. Lausti, Jiří Hajnyš, Ivan Hudák and David Motyčka, Adam Jelínek

We're excited about the potential of this research and look forward to your feedback!

#3DPrinting #UltraHighVacuum #ElectronIonTrapping #MicrowaveDetection #academia #QuantumPhysics #physics_news #preprint

Exciting News!

We're thrilled to announce that our latest preprint is now available on arXiv!

📄 Title: 3D-printed components for electron-ion trapping: Tests of functionality and ultra-high vacuum compatibility

🔗 Read the full abstract here: https://arxiv.org/abs/2509.06537

In this work, we demonstrate the ultra-high vacuum (UHV) compatibility of a microwave-driven electron trap and an atomic oven fabricated through 3D printing via Laser Powder Bed Fusion (L-PBF). Our findings show that these components can support stable, narrow-band, high-amplitude oscillations of the electric field at the electrodes, making them suitable for simultaneous trapping of ions.

Key highlights include:
- Successful integration of the trap into a coaxial microwave cavity
- Effective performance of the atomic oven in UHV environments with minimal outgassing
- Investigation of long-term pressure variations and their potential impact on electron-ion trapping experiments

These results pave the way for future experiments in microwave detection and the study of low-energy ion-electron interactions at room temperature.

A big thank you to our collaborators and the entire team:
Vineet Kumar, Niklas V. Lausti, Jiří Hajnyš, Ivan Hudák and David Motyčka, Adam Jelínek

We're excited about the potential of this research and look forward to your feedback!

#3DPrinting #UltraHighVacuum #ElectronIonTrapping #MicrowaveDetection #academia #QuantumPhysics #physics_news #preprint

Solving Ultra High Vacuum Leaks Has An Elementary Solution - When we think of a vacuum leak we generally think of a car that just doesn’t want ... - https://hackaday.com/2021/08/16/solving-ultra-high-vacuum-leaks-has-an-elementary-solution/ #ultrahighvacuum #appliedscience #leakdetection #vacuumchamber #sciencelab #mischacks #hardware #science #gasket #helium #vacuum #leak