Deutsch

Tescan expands semiconductor workflow using femtosecond laser technology

35
2025-11-20 10:58:32
Übersetzung anzeigen

Tescan releases its next-generation femtosecond laser platform, FemtoChisel, expanding its semiconductor product portfolio. This platform is committed to improving the speed, accuracy, and quality of sample preparation, and will officially debut at the ISTFA exhibition in 2025.

 



FemtoChisel was developed specifically for semiconductor research and failure analysis environments where both throughput and adaptability are critical. By combining nanometer-level precision and high-throughput intelligent laser processing, FemtoChisel delivers pristine surfaces while significantly reducing the need for subsequent FIB polishing steps. This enables faster turnaround in research and failure analysis for current, and future, semiconductor materials.

“Semiconductor research and failure analysis teams are under constant pressure to deliver faster, more reliable results from any material layer within semiconductors stack. With FemtoChisel, we’ve addressed this challenge in our Large Volume Workflow for Semiconductors,” said Sirine Assaf, Chief Revenue Officer at Tescan. “It’s not just a new instrument – it’s a workflow enabler. By integrating ultrafast, femtosecond laser precision with intelligent adaptive laser processing, we’re helping labs accelerate sample preparation, reduce rework, and bring clarity to increasingly more complex devices.”

Workflow Benefits of FemtoChisel
Adaptive multi-material processing, High Fluence Laser Machining with proprietary intelligent multi-gas processing and laser protective layer that preserves device integrity across metals, polymers, and advanced packaging stacks.
High-throughput access to buried structures with taper-corrected, debris-free cross-sections – often eliminating the need for FIB finepolishing.
Selective backside thinning with mirror-like surfaces (Ra < 0.4 µm), enabling optical fault analysis without artifacts.
Large-area delayering (> 5 mm) with automated endpointing for accurate layer-by-layer removal at laser speeds.
By uniting laser processing, electron microscopy, and FIB into complementary workflows, Tescan is helping semiconductor innovators overcome traditional bottlenecks in sample preparation. FemtoChisel serves both recipe-driven environments and flexible research in advanced packaging and R&D labs, providing a versatile solution for current and future semiconductor demands.

Tescan’s commitment to integrated workflows is further strengthened by its Laser Technology Business Unit, established following the acquisition of FemtoInnovations. This dedicated focus ensures continued innovation in laser-enabled sample preparation technologies for the semiconductor industry.

Source: AZOM

Ähnliche Empfehlungen
  • China University of Science and Technology proposes composite cold field 3D printing technology for liquid crystal elastomers

    Recently, Associate Professor Li Mujun from the School of Engineering Sciences and the Institute of Humanoid Robotics at the University of Science and Technology of China, together with researchers such as Professor Zhang Shiwu, has made significant progress in the field of intelligent material 3D printing. The research team proposed composite cold field 3D printing technology and successfully pre...

    02-25
    Übersetzung anzeigen
  • Scientists use the light inside fibers as thin as hair to calculate

    Scientists from Heriot Watt University in Edinburgh, Scotland have discovered a powerful new method for programming optical circuits, which is crucial for the delivery of future technologies such as unbreakable communication networks and ultrafast quantum computers."Light can carry a large amount of information, and optical circuits that use light instead of electricity are seen as the next majo...

    2024-01-20
    Übersetzung anzeigen
  • The Science Island team has made new progress in detecting atmospheric formaldehyde

    Recently, Zhang Weijun, a research team of the Anguang Institute of the Chinese Academy of Sciences, Hefei Academy of Materials, made new progress in atmospheric formaldehyde detection, and the related achievements were published on the international TOP journal Sensors and Actors: B. Chemical under the title of "Portable highly sensitive laser absorption spectrum formaldehyde sensor based on comp...

    2023-09-21
    Übersetzung anzeigen
  • On demand ultra short laser flash: controllable optical pulse pairs from a single fiber laser

    Set up a dual comb fiber laser oscillator, external pulse combination, and real-time detection.In innovative methods for controlling ultra short laser flashes, researchers from Bayreuth University and Konstanz University are using soliton physics and two pulse combs in a single laser. This method has the potential to greatly accelerate and simplify laser applications.Traditionally, the pulse inter...

    2024-01-12
    Übersetzung anzeigen
  • More penetrating than X-rays μ Meson imaging is expected to be advanced with high-power lasers

    μ Mesons are naturally occurring subatomic particles that can penetrate much deeper dense matter than X-rays. Therefore, μ Meson imaging can enable scientists to capture images of nuclear reactors, volcanoes, tsunamis, and hurricanes. However, this process is slow, as it occurs naturally μ The low flux of mesons requires several months of exposure time for the image.It is understood that ...

    2023-11-01
    Übersetzung anzeigen