FREE SHIPPING with $59 or More. New Customer? Inquire for Major Discount & Free Samples! Online Payments & POs Accepted.

Deposition & Thin-Film Materials

Deposition & Thin-Film Materials supports vacuum coating, thin-film preparation, materials research, and functional coating development. The range covers evaporation materials, sputtering targets, and materials used in thin-film deposition for electronics, semiconductors, optics, displays, energy devices, magnetic materials, sensors, protective coatings, and advanced materials research.

Materials can be selected by deposition method, material system, film function, purity, physical form, dimensions, and process compatibility. Whether developing conductive films, optical coatings, magnetic layers, dielectric films, wear-resistant coatings, diffusion barriers, or new thin-film processes, customers can begin by selecting the appropriate material family.

When making an inquiry, please provide the required material or formula, purity, material form or target dimensions, deposition method, quantity, substrate type, and any technical documentation requirements.

Show More: Select by Deposition Method, Material System, and Film Requirement

Main Material Types

Material Type	Typical Material Range	Typical Applications	Selection Considerations
Pure Metal Evaporation Materials	Aluminum, copper, silver, gold, chromium, titanium, nickel, molybdenum, tungsten, platinum, and other metals	Conductive layers, electrodes, reflective films, adhesion layers, and functional metal films	Element, purity, physical form, and evaporation-source compatibility
Alloy Evaporation Materials	Aluminum alloys, nickel alloys, titanium alloys, magnetic alloys, precious-metal alloys, and functional alloys	Alloy films, magnetic films, barrier layers, and specialized functional coatings	Nominal composition, evaporation behavior, and required film performance
Oxide Evaporation Materials	Metal oxides, transparent conductive oxides, dielectric oxides, and functional oxides	Optical films, transparent conductive films, insulating layers, sensors, and functional thin films	Chemical composition, thermal stability, and film-function requirements
Nitride Evaporation Materials	Metal nitrides and functional nitride compounds	Hard coatings, wear-resistant layers, diffusion barriers, electronic films, and optical films	Material system, process temperature, hardness, and film stability
Carbide Evaporation Materials	Metal carbides and high-temperature compounds	Wear-resistant coatings, high-temperature films, and hard functional layers	Melting behavior, evaporation method, and required film density
Chalcogenide Evaporation Materials	Sulfides, selenides, tellurides, and related compounds	Optoelectronic materials, infrared materials, thin-film solar research, and semiconductor studies	Stoichiometry, purity, and thermal stability
Halide Evaporation Materials	Fluorides, chlorides, bromides, iodides, and related materials	Optical coatings, infrared-transmitting films, and electron-beam evaporation processes	Optical properties, deposition conditions, and film purpose
Phosphide and Antimonide Evaporation Materials	Metal phosphides, antimonides, and related compounds	Compound semiconductors, optoelectronic devices, and functional thin-film research	Chemical composition, intended film application, and process compatibility
Specialty Compound Evaporation Materials	Complex oxides, borides, silicides, chalcogenides, and other functional compounds	Specialized optical, electronic, magnetic, and advanced functional films	Performance target, deposition method, and project requirements
Sputtering Targets	Pure metal targets, alloy targets, oxide targets, ceramic targets, and compound targets	DC sputtering, RF sputtering, magnetron sputtering, and thin-film preparation	Composition, dimensions, thickness, purity, and equipment configuration
CVD / ALD Precursor Materials	Metal-organic precursors, halide precursors, silicon sources, and other vapor-deposition materials	Chemical vapor deposition, atomic layer deposition, semiconductor processing, and highly uniform thin films	Precursor chemistry, process temperature, reaction system, and equipment compatibility

Select by Film Function

Film Requirement	Material Directions to Consider
Conductive Layers and Electrodes	Pure metals, precious metals, copper-based, aluminum-based, nickel-based, and transparent conductive oxide materials
Optical and Antireflection Films	Oxides, fluorides, sulfides, and other optical functional compounds
Semiconductor and Electronic Films	High-purity metals, silicides, phosphides, antimonides, oxides, and CVD / ALD precursors
Magnetic and Sensor Films	Iron-based, cobalt-based, nickel-based, rare-earth, and other functional alloy materials
Wear-Resistant, Corrosion-Resistant, and Protective Films	Nitrides, carbides, oxides, refractory metals, and alloy materials
Barrier and Interface Layers	Titanium, chromium, molybdenum, tungsten, tantalum, nickel-based, and related alloy or compound materials
Energy and Functional Device Films	Oxides, chalcogenides, phosphides, specialty compounds, and composite materials

Information to Confirm Before Ordering

Information	Why It Matters
Deposition Method	Matches the material to evaporation, sputtering, CVD, ALD, or another thin-film process.
Material Composition	Defines the chemical system and intended film function.
Purity Requirement	Supports impurity-control requirements for electronic, optical, semiconductor, or general research applications.
Material Form	Evaporation materials may be selected as pellets, granules, pieces, sheets, wire, or other forms; sputtering targets require compatible dimensions and geometry.
Film Requirement	Helps identify suitable materials for conductive, insulating, magnetic, optical, protective, or other functional layers.
Equipment Conditions	Confirms compatibility with the evaporation source, crucible, electron-beam system, target holder, power mode, and vacuum system.
Substrate and Process Conditions	Supports selection based on substrate material, temperature, atmosphere, film thickness, and post-treatment requirements.

Frequently Asked Questions

What is the difference between evaporation materials and sputtering targets?

Evaporation materials are vaporized in vacuum by heating or electron-beam methods and deposited onto a substrate. Sputtering targets are solid source materials used in plasma-assisted deposition. The suitable choice depends on the deposition equipment and process route.

How should I choose a thin-film material?

Start with the required film function, such as conductivity, insulation, reflectivity, optical transmission, hardness, magnetic response, or barrier performance. Then confirm the deposition method, substrate, process temperature, purity requirement, and equipment conditions.

Is higher purity always better?

Not every application requires the same purity level. Higher-purity materials are often preferred for impurity-sensitive electronic, optical, and semiconductor applications, while other thin-film projects should select purity according to practical performance and process requirements.

What forms are commonly available for evaporation materials?

Common forms include pellets, granules, pieces, sheets, powder, wire, rods, and custom shapes. The appropriate form depends on the evaporation source design, loading method, and material-utilization requirements.

What should be considered when selecting a sputtering target?

Confirm the material composition, purity, target diameter or rectangular dimensions, thickness, target shape, power mode, and deposition-system configuration. Backing plates, bonding, and specialized dimensions should also be considered where applicable.

What are oxide, nitride, and carbide materials typically used for?

Oxides are commonly used in optical, dielectric, transparent conductive, and functional films. Nitrides are often selected for hard, wear-resistant, and barrier coatings. Carbides are generally considered for high-temperature, high-hardness, and wear-resistant film applications.

Can these materials be used for research and small-batch process development?

Yes. Thin-film materials are widely used for material screening, process validation, device development, sample preparation, and small-batch trials. Defining the target film, substrate, deposition method, and key performance requirements helps guide material selection.

What information should I provide when requesting a quotation?

Please provide the material name or formula, purity, physical form or target dimensions, quantity, deposition method, equipment type, substrate material, intended application, and required technical documentation.

Showing 33–48 of 1414 results