Thin Film Materials Logo
Generic selectors
Exact matches only
Search in title
Search in content
Post Type Selectors
Antimony Doped Tin Oxide Evaporation Materials

VD0670 Antimony Doped Tin Oxide Evaporation Materials, ATO Evaporation Materials

Catalog No.VD0670
MaterialAntimony Doped Tin Oxide (ATO)
Purity99.9% ~ 99.99%
ShapePowder/ Granule/ Custom-made

Thin-Film Mat Engineering (TFM) is a prominent producer and distributor of high-purity antimony-doped tin oxide (ATO) evaporation materials, as well as a diverse selection of other evaporation materials. Our offerings include both powder and granule forms, with custom options available to meet specific needs upon request.

MSDS File

Introduction

Antimony Doped Tin Oxide Evaporation Materials (ATO Evaporation Materials) are functional oxide compounds designed for the deposition of transparent conductive and infrared-reflective thin films. By introducing antimony (Sb) into tin oxide (SnO₂), electrical conductivity is significantly enhanced while maintaining high optical transparency.

ATO thin films are widely applied in optoelectronics, energy-saving glass, display technologies, and electrostatic protection coatings. In vacuum evaporation systems, high-purity ATO materials ensure stable composition transfer and reliable film performance.

Detailed Description

ATO is a doped semiconductor oxide in which antimony acts as an n-type dopant within the SnO₂ lattice. The Sb concentration (commonly 5–15 wt% Sb₂O₃ equivalent) directly influences electrical conductivity and optical properties.

Evaporation materials are typically supplied as:

  • Sintered pellets

  • Granules

  • Pressed tablets

  • Custom-shaped pieces for crucibles

Manufacturing emphasizes:

  • Controlled Sb doping level for consistent conductivity

  • High phase purity to prevent secondary phase formation

  • Dense microstructure to improve evaporation stability

  • Optimized particle size for uniform heating

ATO evaporation materials are compatible with thermal evaporation and electron beam evaporation systems. Oxygen partial pressure control during deposition may be required to maintain appropriate film stoichiometry and optimize carrier concentration.

The resulting ATO films typically exhibit:

  • High optical transparency in the visible range

  • Improved electrical conductivity compared to pure SnO₂

  • Infrared reflection properties

  • Good chemical and thermal stability

These characteristics make ATO a practical alternative to other transparent conductive oxides in specific cost-sensitive applications.

Applications

Antimony Doped Tin Oxide Evaporation Materials are widely used in:

  • Transparent conductive coatings

  • Low-emissivity (Low-E) glass coatings

  • Touch panels and display technologies

  • Antistatic coatings

  • Solar cell front electrodes (research and niche applications)

  • Electrochromic devices

  • Optical and functional oxide thin films

ATO films are often used in architectural glass and automotive glazing to improve energy efficiency through infrared reflection.

Technical Parameters

ParameterTypical Value / RangeImportance
Chemical CompositionSnO₂:Sb₂O₃ (custom ratio)Determines electrical conductivity
Sb Doping Level5–15 wt% typicalControls carrier concentration
Purity99.9% – 99.99%Reduces optical absorption losses
FormPellets / Granules / PiecesCompatible with evaporation sources
Density≥ 95% theoreticalImproves deposition stability
Deposition MethodThermal / E-beam EvaporationEnsures uniform thin film growth

Custom compositions and pellet sizes can be supplied to match specific system configurations.

Comparison with Related Transparent Conductive Oxides

MaterialKey AdvantageTypical Application
ATOCost-effective conductivity & IR reflectionLow-E glass & antistatic films
ITO (Indium Tin Oxide)High conductivity & transparencyDisplays & touch panels
FTO (Fluorine Doped Tin Oxide)Thermal stabilitySolar glass
AZO (Aluminum Doped Zinc Oxide)Indium-free alternativeTransparent electrodes

Compared to ITO, ATO offers a lower-cost alternative with good infrared reflection performance, especially in architectural glass applications.

FAQ

QuestionAnswer
Can the Sb doping ratio be customized?Yes, doping levels can be tailored to achieve desired conductivity and transparency.
Is oxygen control required during deposition?Yes, controlling oxygen partial pressure can optimize film properties.
Is ATO suitable for transparent conductive coatings?Yes, it is widely used for conductive and antistatic thin films.
Can it replace ITO?In certain cost-sensitive or IR-reflective applications, ATO can be a viable alternative.
Do you provide material certification?Yes, chemical composition and batch traceability documents are available.

Packaging

Our Antimony Doped Tin Oxide Evaporation Materials are meticulously tagged and labeled externally to ensure efficient identification and maintain high standards of quality control. We take great care to prevent any potential damage during storage and transportation, ensuring the materials arrive in perfect condition.

Conclusion

Antimony Doped Tin Oxide Evaporation Materials (ATO) provide a reliable solution for transparent conductive and infrared-reflective thin films. With controlled doping, stable evaporation behavior, and customizable specifications, they support a broad range of optoelectronic and architectural coating applications.

For detailed specifications and a quotation, please contact us at sales@thinfilmmaterials.com.

Reviews

There are no reviews yet.

Be the first to review “VD0670 Antimony Doped Tin Oxide Evaporation Materials, ATO Evaporation Materials”

Your email address will not be published. Required fields are marked *

Related Products

Related products

FAQ

  • They are high‐purity substances (e.g. metals, alloys, or compounds) used in thermal or electron‐beam evaporation processes to form thin films on substrates.

  • Typically, they’re processed into a form (often ingots, pellets, or wires) that can be efficiently vaporized. Preparation emphasizes high purity and controlled composition to ensure film quality.

  • Thermal evaporation and electron-beam (e-beam) evaporation are the two main techniques, where material is heated (or bombarded with electrons) until it vaporizes and then condenses on the substrate.

  • Thermal evaporation heats the material directly (often using a resistive heater), while e-beam evaporation uses a focused electron beam to locally heat and vaporize the source material—each method offering different control and energy efficiency.

  • Key parameters include source temperature, vacuum level, deposition rate, substrate temperature, and the distance between the source and the substrate. These factors influence film uniformity, adhesion, and microstructure.

  • Evaporation generally produces high-purity films with excellent control over thickness, and it is especially suitable for materials with relatively low melting points or high vapor pressures.

  • Challenges include issues with step coverage (due to line-of-sight deposition), shadowing effects on complex topographies, and possible re-evaporation of material from the substrate if temperature isn’t properly controlled.

  • Common evaporation materials include noble metals (e.g., gold, silver), semiconductors (e.g., silicon, germanium), metal oxides, and organic compounds—each chosen for its specific optical, electrical, or mechanical properties.

  • Selection depends on desired film properties (conductivity, optical transparency, adhesion), compatibility with the evaporation process, and the final device application (semiconductor, optical coating, etc.).

  • Optimizing substrate temperature, deposition rate, and chamber vacuum are critical for ensuring that the film adheres well and forms the intended microstructure without defects.

  • Troubleshooting may involve checking the source material’s purity, ensuring stable source temperature, verifying the vacuum level, adjusting the substrate’s position or temperature, and monitoring deposition rate fluctuations.

While evaporation tends to yield very high purity films with excellent thickness control, it is limited by its line-of-sight nature. In contrast, sputtering can deposit films more uniformly on complex surfaces and is more versatile for a broader range of materials.

 

Shopping Cart
Scroll to Top