Your Professional Thin Film Deposition Equipment Supplier
Nice-tech is a professional semiconductor equipment provider with a dedicated factory and an experienced technical team. Our operations are supported by multiple production lines equipped with standardized process control and key semiconductor-related equipment to ensure stable quality and delivery. The company is backed by a skilled team of engineers, technicians, and project specialists with solid industry experience, enabling effective coordination between equipment suppliers and end users.
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Industrial MOCVD SystemNice-Tech CV600/CV700 series are high-end mass-production MOCVD devices for compound semiconductor epitaxial growth, adopting proprietary planetary-satellite dual rotation technology to realize multi-wafer growth with single-wafer-level...view more
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Standard MOCVD SystemNice-Tech MC150/MC200/MC300 series MOCVD equipment adopts the close-coupled vertical showerhead gas injection model, with inherent epitaxial uniformity advantages via high-density staggered source gas nozzles and controllable small...view more
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IBD SystemThis Ion Beam Deposition Equipment is a high-precision thin film deposition system designed for the preparation of metal wire and ohmic contact thin films in infrared device manufacturing.view more
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Dual-Chamber Magnetron Sputtering SystemThis dual-chamber magnetron sputtering system is built specifically for infrared focal plane device manufacturing. Its main function is to deposit ZnS/CdTe composite passivation films on HgCdTe epitaxial layers, a critical step in the...view more
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Vertical LPE SystemThis vertical liquid phase epitaxy furnace is built for the liquid-phase epitaxial growth of HgCdTe thin-film materials, with a focus on producing As-doped P-type materials used in P-on-N structure detectors.view more
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Horizontal LPE SystemThe Horizontal Liquid Phase Epitaxy Furnace is a dedicated piece of process equipment built for the liquid phase epitaxial growth of HgCdTe thin films.view more
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Carbon Magnetron Sputtering SystemOur carbon film sputtering equipment is a dedicated system built for depositing high-temperature carbon film protective layers on SiC devices. It uses a cluster architecture that can be configured with multiple process chambers, and...view more
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Vertical LPCVD SystemThe Vertical LPCVD TEOS/Poly/SiN is a low-pressure chemical vapor deposition system for semiconductor manufacturing. It’s used to deposit high-quality Poly, TEOS, SiN, and HTO thin films.view more
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Magnetron Sputtering SystemThis magnetron sputtering system is built for metal thinfilm deposition in semiconductor manufacturing. It’s widely used in integrated circuits, power devices, and advanced packaging.view more
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MBE SystemOur Molecular Beam Epitaxy (MBE) system is a high-precision epitaxial growth equipment dedicated to compound semiconductor materials, especially ultra-thin heterostructure materials. It is mainly used in the manufacturing of...view more
why choose us
Tailored Solution Delivery
Our experienced team analyzes clients' specific needs to match the most suitable semiconductor equipment and offer customized solutions for different production and R&D scenarios.
Comprehensive Technical Support
We provide full-cycle technical assistance, from equipment commissioning to maintenance, including on-site troubleshooting and real-time online consultation, reducing operational hassles.
Support for Advanced Processes
We continuously invest in industry insights and adapt to cutting-edge tech trends, offering high-precision equipment solutions and upgrading services to meet high-end chip production needs.
Service Advantages
Offer 1v1 online support for equipment operation, parameter adjustment, and process optimization, responding to your questions promptly.

Ion Beam Deposition Systems are advanced tools used to deposit thin films of materials onto surfaces with high precision. They are essential in industries like electronics, aerospace, and nanotechnology, where controlling material properties at the atomic level is crucial. These systems utilize ion beams—streams of charged particles—to modify surfaces or deposit new layers, enabling manufacturers to create components with enhanced performance, durability, and functionality.
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Category |
8-inch IBD System |
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Wafer Compatibility |
8-inch (primary); adaptable to partial special-size substrates via process adjustment |
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Ion Source Configuration |
Dual-ion-source (sputtering ion source + auxiliary ion source); optional IBE (Ion Beam Etching) function |
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Target Drum Capacity |
4-slot rotating target drum (supports up to 4 different target materials) |
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Deposition Temperature |
Low-temperature process (avoids thermal damage to wafer and sensitive devices) |
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Process Pressure |
Ultra-low pressure environment (contributes to high-density film deposition) |
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Film Control System |
Real-time optical control system (monitors, analyzes and adjusts film spectrum in real time) |
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Depositable Materials |
Metals, alloys, oxides, and customizable for novel functional films (e.g., 2D composites, piezoelectric films) |
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Process Integration |
"Pre-cleaning-deposition-etching" integrated process (optional, same chamber) |
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Industry Compliance |
Compliant with semiconductor industry processing standards |
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Key Components |
International standard parts (low maintenance cost, convenient spare parts replacement) |
Advantages of Ion Beam Deposition System
Low-temperature deposition:
The substrate temperature is below 200℃, avoiding the impact of high-temperature processing on the dimensions of materials and precision components.
Strong parameter controllability:
Ion beam energy density can be electrically controlled, with a deposition rate range of 0.1-1.0 nm/s.
High film quality:
High-quality thin films with high density and controllable crystal parameters can be prepared, including thin film materials that can only be obtained under high temperature and high pressure conditions.
Wide material adaptability:
Supports the synthesis of single-component or multi-component thin films of metals, alloys, ceramics, and polymers, as well as amorphous, polycrystalline, and single-crystal thin films.
Applications of Ion Beam Deposition System
Electronics:
Used to deposit conductive, insulating, or protective layers on semiconductors, enhancing device performance and longevity. For example, creating ultra-thin dielectric layers in microchips.
Aerospace:
Applied to coat turbine blades and spacecraft components with materials that withstand extreme temperatures and corrosion, improving durability and safety.
Optics:
Used to produce anti-reflective coatings, laser components, and mirrors with precise optical properties, resulting in better performance and reduced signal loss.
Nanotechnology:
Facilitates the fabrication of nanostructures and thin films with atomic-level control, enabling innovations in sensors, biomedical devices, and energy storage.
When to Use Ion Beam Deposition System
Highest precision coatings: Other physical vapor deposition (PVD) methods don’t offer the same level of precision as ion beam deposition. The process gives you control over several parameters, such as target sputtering rate and ion current density, that evaporative techniques and magnetron sputtering cannot provide. Being able to control these variables independently leads to the most precise coatings, making it ideal for precision optics or semiconductor production where high-quality films are a necessity.
Extremely tight control over film thickness: A high level of precision is particularly desirable for controlling the thin film thickness and uniformity. With IBD and its excellent precision and repeatability, you can be assured that your thin film coating will meet those specs.
Environmental stability/durability: Because of the collimated monoenergetic deposition inherent to IBD, the coatings produced are usually extremely uniform and very dense, with excellent adhesion to the substrate. This makes the coatings highly stable and durable(New Window), so they are ideal for applications where durability and reliability is a must.
Low absorption and scattering: If you require a thin film deposition method with the highest possible transmission for thicker films, then IBD is your best option, because it produces low absorption and scatter compared to other PVD methods.
Highly automated process: The IBD process can be automated, so operator supervision is not needed to deliver high quality, high precision films.
Working Principle of Ion Beam Deposition System
Generation of Ions: The process begins with an ion source that ionizes a neutral gas (like argon). This creates a stream of charged particles ready for acceleration.
Ion Acceleration: The ions are accelerated through electric fields, gaining kinetic energy. The energy level can be adjusted depending on the desired deposition characteristics.
Beam Focusing and Steering: Magnetic and electrostatic lenses focus the ion beam into a narrow, high-intensity stream directed toward the substrate surface.
Surface Interaction: When the ion beam strikes the substrate, it either sputters material from a target to deposit a film or modifies the surface properties of the existing layer, such as increasing hardness or adhesion.
Deposition or Modification: Depending on the process, material is either deposited onto the surface or the surface is altered at an atomic level, creating thin, uniform coatings with specific properties.
Process Control: Operators monitor parameters like ion energy, flux, and angle to ensure precise deposition, often using real-time feedback systems.
FAQ
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