Comparing 20 vendors in Optical Coatings across 0 criteria.

Market Presence
Contenders Contenders
Market Leaders Market Leaders
Emerging Companies Emerging Companies
Innovators Innovators
Abrisa Technologies
Janos Technology
DuPont
NSG
PPG
Materion
Newport
Ophir Optronics
Inrad Optics
Reynard
Coherent
ZEISS
Artemis Optical
Deposition Sciences
MLD
Lambda
Andover
Visimax
Evaporated Coatings
ASML Berlin
Product Footprint
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POWERED BY MARKETSANDMARKETS
Apr 23, 2024

The Optical Coating Companies Quadrant is a comprehensive industry analysis that provides valuable insights into the global market for Optical Coatings. This quadrant offers a detailed evaluation of key market players, technological advancements, product innovations, and emerging trends shaping the industry. MarketsandMarkets 360 Quadrants evaluated over 50 companies of which the Top 20 Optical Coating Companies were categorized and recognized as the quadrant leaders.

Optical coatings involve applying thin layers of films onto optical components like lenses and mirrors to enhance their reflection and transmission properties. These coatings consist of multiple layers of different metallic and dielectric materials, such as titanium dioxide, silicon dioxide, and aluminum. They are specifically designed for various applications and serve as effective alternatives to traditional coatings. Optical coatings are widely utilized in industries such as electronics, semiconductors, military, defense, and transportation to minimize dispersion, improve surface quality, and reduce the surface reflectance of optical components.

The 360 Quadrant maps the optical coating companies based on criteria such as revenue, geographic presence, growth strategies, investments, channels of demand, and sales strategies for the market presence of the optical coatings’ quadrant. While the top criteria for product footprint evaluation included Technology (Vacuum Deposition Technology, E-Beam Evaporation Technology, Sputtering Process, Ion-Assisted Deposition (IAD) Technology), Type (AR Coatings, High Reflective Coatings, Transparent Conductive Coatings, Filter Coatings, Beam splitter Coatings, EC Coatings, Others), End-use Industry (Electronics & Semiconductor, Military & Defense, Transportation, Telecommunication/Optical Communication, Infrastructure, Solar Power, Medical, Others).  

Key trends highlighted in 360 Quadrants:

  • The optical coatings market is set to achieve substantial growth, with a projected increase from USD 13.2 billion in 2023 to USD 19.6 billion by 2028, indicating a CAGR of 8.2% throughout the forecast period. This growth is primarily attributed to the expansion of manufacturing and industrial sectors. Notably, emerging economies such as China, India, and Southeast Asian nations are undergoing rapid industrialization and infrastructure development, fueling the demand for optical coatings. The surge in urbanization, ongoing construction projects, and industrial advancements in these regions are driving heightened demand for optical coatings across diverse industries. The increased production activities and infrastructure development are key contributors to the growing demand for components related to optical coatings.
  • Prominent optical coating companies favor vacuum deposition technology for its resilient mechanical and thermal strength, along with its ability to enhance the optical properties of coating films even at room temperature. The vacuum deposition segment in the global optical coatings market is anticipated to have a valuation of USD 5.6 billion in 2023, and it is expected to grow at a CAGR of 7.9%, reaching USD 8.2 billion by 2028 during the forecast period.
  • The AR coatings type segment emerged as the dominant player in the global optical coatings market, securing a substantial 45.2% market share, equivalent to USD 5.8 billion in 2023. This commanding position is driven by the increasing demand across diverse applications, such as mobile electronics, solar technology, telecommunication, camera lenses, and eyewear products. AR coatings are favored for their capacity to provide efficient, dependable, and high-quality coatings, effectively minimizing back-glare and reflectivity in the coated components.
  • The optical coatings market in North America, particularly the USA, is expected to grow significantly due to expanding manufacturing, increased R&D activities, and strategic development initiatives. Meanwhile, the Asia Pacific region, the second-largest market, is poised for the highest growth with a projected 9.0% CAGR from 2023 to 2028. This growth is driven by increased demand for optical coatings in various industries, coupled with investments in automotive, infrastructure, solar, and manufacturing. The region's growing manufacturing sector and the global shift of production capacity to emerging markets like India, South Korea, and Taiwan contribute significantly to the optical coatings market expansion.
  • The competitive landscape of the optical coatings market encompasses the key growth strategies implemented by major players. Leading optical coating companies in this market include DuPont (US), PPG Industries Ohio, Inc. (US), Nippon Sheet Glass Co., Ltd. (Japan), ZEISS Group (Germany), Newport Corporation (US), Inrad Optics, Inc. (US), Artemis Optical Limited (England), Abrisa Technologies (US), Reynard Corporation (US), and Coherent Corp. (US). These industry leaders have pursued diverse growth approaches, such as mergers & acquisitions, investments & expansions, partnerships & agreements, and product launches, to strengthen their positions in the optical coatings market. For instance, In June 2023, PPG and Satys, a French industrial group with expertise in aircraft sealing, painting, and surface treatment, joined forces to provide electrocoating (e-coat) services tailored for original equipment manufacturer (OEM) aircraft components.
  • Another company in June 2023, DuPont and JetCool Technologies Inc., operating as JetCool, announced a collaborative initiative to advance the widespread adoption of advanced liquid cooling technology. The collaboration focused on enhancing thermal management solutions for various high-power electronic applications, including semiconductors, data centers, and high-performance computing systems. By joining forces, DuPont and JetCool aimed to drive innovation and facilitate the adoption of more efficient cooling techniques in these demanding sectors.
  • The versatile applications of optical coatings across industries such as semiconductors, high-temperature lamp tubing, telecommunication, optics, and microelectronics significantly impact optical coating companies. In the electronics & semiconductor sector, these coatings play a crucial role in essential processes like printed circuit board (PCB) coating, ICs, and wafer modification, ensuring the durability of components against high-temperature gradients and rapid thermal processing. As advancements in the electronics industry drive the use of new-generation wafers, there is an increasing demand for high-purity optical coatings to enhance product performance. Moreover, the integration of optical coatings into smartphones, including screens, camera lenses, and semiconductor chips, improves touch sensing and display capabilities. This trend contributes to the overall market growth, as the adoption of optical coatings in smart devices continues to rise, presenting new opportunities and challenges for optical coating companies to meet the evolving needs of various industries.

The Full List

The Full List

Company Headquarters Year Founded Holding Type
ASML Berlin Berlin, Germany 1952 Private
Abrisa Technologies Santa Paula, USA 1980 Private
Andover Salem, USA 1976 Private
Artemis Optical Plymouth, UK 2008 Private
Coherent Santa Clara, USA 1971 Private
Deposition Sciences Santa Rosa, USA 1985 Private
DuPont Wilmington, USA 1802 Public
Evaporated Coatings Willow Grove, USA 1960 Private
Inrad Optics Northvale, USA 1973 Public
Janos Technology Keene, USA 1970 Private
Lambda Costa Mesa, USA 1991 Private
MLD Mountain View, USA 1997 Private
Materion Mayfield Heights, USA 1931 Private
NSG Minato-ku, Japan 1918 Private
Newport Irvine, USA 1969 Private
Ophir Optronics Jerusalem, Israel 1976 Private
PPG Pittsburgh, USA 1882 Public
Reynard San Clemente, USA 1984 Private
Visimax Twinsburg, USA 1999 Private
ZEISS Oberkochen, Germany 1846 Private
 
Frequently Asked Questions (FAQs)
Various optical coatings cater to diverse applications, each tailored to specific needs. Antireflection coatings reduce reflections, enhancing light transmission through lenses. Reflective coatings, like high-reflectance (HR) or enhanced aluminum, optimize reflectivity for mirrors and specific optical components. Dielectric coatings consist of multiple layers of materials with varying refractive indices, often employed in antireflection and beam-splitting applications. Beam splitter coatings divide light into different paths, vital in interferometry and microscopy. Transparent conductive coatings, such as indium tin oxide, combine optical transparency with electrical conductivity, valuable in electronic displays. Dichroic coatings selectively transmit certain wavelengths while reflecting others, introducing color effects. Specialty coatings include hydrophobic coatings for water resistance and protective coatings for durability, contributing to the vast array of optical advancements.
High-reflectance (HR) and antireflection (AR) coatings serve contrasting purposes in optics. HR coatings aim to maximize reflectivity, commonly applied to mirrors or surfaces where efficient reflection is crucial. They consist of multiple layers to enhance reflection at specific wavelengths. In contrast, AR coatings minimize reflections, ensuring optimal light transmission through lenses or optical elements. Achieved through interference effects with tailored refractive indices, AR coatings reduce unwanted reflections, enhancing image contrast and brightness. While HR coatings excel in reflective applications, AR coatings are indispensable for improving light transmission and clarity in optical systems such as cameras, eyeglasses, and microscopes.
Ophthalmic lens coating refers to specialized treatments applied to eyeglass lenses to enhance their performance and durability. One common type is antireflection coating, reducing glare and improving clarity by minimizing reflections on the lens surface. Additionally, scratch-resistant coatings enhance lens durability, minimizing the impact of daily wear. UV coatings provide protection against harmful ultraviolet rays. Hydrophobic coatings repel water, reducing smudges and facilitating easier cleaning. Photochromic coatings enable lenses to adjust to varying light conditions. These coatings collectively enhance visual comfort, durability, and functionality, contributing to the overall effectiveness and longevity of eyeglasses in meeting individual vision needs.
Optical coatings can be made from a variety of materials, including dielectric materials, metals, and special compounds. Dielectric coatings often consist of layers of materials with different refractive indices, while metal coatings are used for reflective purposes.
Antireflection coatings are designed to minimize reflections by using thin layers of materials with specific refractive indices. These coatings create destructive interference, reducing the amount of light reflected at the surface of the optical component and improving overall light transmission. Antireflection (AR) coatings are typically colorless or have a very faint tint. The goal of AR coatings is to minimize reflections and maximize light transmission without introducing color distortion to the transmitted light. While some inexpensive or older AR coatings might have a slight color, modern and high-quality AR coatings are designed to be nearly color-neutral. This ensures that the coated lenses do not alter the perceived color of the objects being viewed, providing a clear and natural visual experience for the wearer.
Beamsplitter coatings are used to divide incoming light into two or more beams, directing them along different paths. These coatings are commonly employed in applications such as interferometry, microscopy, and optical communication systems.
Yes, certain optical coatings can affect the color of transmitted light. Dichroic coatings, for example, selectively transmit certain wavelengths while reflecting others, resulting in a color shift in the transmitted light.
The durability of optical coatings depends on factors such as the type of coating, the materials used, and the application. Hard coatings, protective layers, and proper handling can enhance the durability of optical coatings, making them resistant to scratches and environmental factors.
The optical coating process involves precise deposition of thin layers onto optical components to modify their reflective or transmissive properties. Common methods include physical vapor deposition (PVD) and chemical vapor deposition (CVD). In PVD, materials like metals or dielectrics are evaporated in a vacuum and deposited onto the substrate. CVD employs chemical reactions to create a thin film on the surface. The thickness and composition of the layers are meticulously controlled to achieve desired optical properties. Monitoring and controlling the deposition process ensure the coating adheres uniformly, providing lenses and mirrors with improved performance, such as antireflection or enhanced reflectivity.
Yes, coatings can be designed to work optimally within specific wavelength ranges. For example, narrowband coatings are tailored to specific wavelengths, making them suitable for applications such as laser systems or imaging in specific spectral regions.
 
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360 Quadrants

360 Quadrants is a scientific research methodology by MarketsandMarkets to understand market leaders in 6000+ micro markets

360 Quadrants

360 Quadrants is a scientific research methodology by MarketsandMarkets to understand market leaders in 6000+ micro markets

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