Every product meets the world through its surface. On a cooking pan, that surface controls food release. On a display, it influences clarity and touch. On a building, it faces weather, dirt, and repeated cleaning. In a factory, it can affect how components move through a production line.
These are practical business concerns. They influence product quality, maintenance effort, manufacturing consistency, and the experience customers have after purchase.
Nanize develops PFAS-free polysilazane coatings and curing technology for manufacturers evaluating these challenges. Its published application areas include cookware, protective surfaces, automotive components, electronics, construction, renewable energy, and industrial equipment.
The opportunity begins with a clear question: what must this particular surface do, and under which operating conditions?
Understanding the technology in straightforward terms
A coating is a thin functional layer applied to a material such as metal, glass, or plastic. Its chemistry and structure determine how it interacts with water, dirt, cleaning agents, and contacting objects.
Nanize describes its cured coating structure as a dense, glass-like network dominated by silicon-oxygen linkages, with covalent bonding to suitable substrates. That structure is central to the company’s approach to adhesion and surface durability.
The company also reports rapid curing in under one minute at temperatures below 100°C without added curing catalysts. Its technology information identifies compatibility with application methods including spray, slot-die, and roll-to-roll processing.
For a manufacturer, these characteristics establish useful starting points for evaluation. The formulation and process must then be matched to the substrate, component geometry, and required service conditions.
Cookware and bakeware: making food release a lasting product feature
Cookware is a direct application for PFAS-free non-stick surface technology. Nanize identifies cookware and bakeware manufacturers as prospective users of its formulations and rapid curing process.
For a manufacturer developing pans or baking trays, the surface must perform through repeated heating, cooling, food contact, and cleaning. Initial food release is only one part of the specification. Performance after abrasion, washing, and exposure to fats or acidic foods can be equally important.
A useful evaluation compares the proposed coating with the existing product under representative conditions. It should measure food release, adhesion, appearance, and relevant migration characteristics for the intended food-contact use.
This sector also demonstrates why regulatory geography matters. Minnesota’s prohibition on intentionally added PFAS in cookware has applied since January 1, 2025, with specific provisions for internal and electronic components.
For a cookware business, the commercial objective is a product with a well-supported material claim and performance customers can recognize over time. Food-contact suitability must be documented for the relevant formulation, finished article, use conditions, and market.
Automotive and protective films: preserving appearance through everyday use
Vehicle surfaces encounter road dirt, cleaning chemicals, handling, and weather. Nanize identifies automotive plastics and protective TPU films among the surfaces its technology can address, including exterior optical components such as headlamp covers and sensor windows.
Different components require different evaluation programs. A protective film must retain flexibility and adhesion as it bends or stretches. An exterior trim part must preserve its intended appearance. An optical cover must maintain the transmission and clarity required by the component behind it.
For suppliers, a relevant trial would combine cleaning and abrasion exposure with outdoor weathering and substrate-specific checks. Optical components also require measurements of haze, transmission, and sensor performance where applicable.
The business opportunity is to develop a surface finish that remains useful and presentable through normal service. Demonstrating that performance on the actual component gives an automotive customer a stronger basis for adoption than a test on an unrelated sample.
Electronics and displays: combining cleanability with optical quality
Touchscreens and displays are frequent contact points between people and products. Fingerprints, dust, and repeated wiping can affect both appearance and usability. Nanize’s published technology information also describes surface work involving optical polymers, including polycarbonate and polythiourethane.
Potential evaluation settings include consumer displays, commercial kiosks, and industrial control panels. Each has its own demands for optical quality, tactile feel, chemical resistance, and cleaning frequency.
A display coating should be assessed as part of the complete device. Relevant measurements can include haze, light transmission, touch response, surface feel, adhesion, and performance after repeated cleaning with the agents specified by the manufacturer.
Lower-temperature processing is particularly relevant when heat exposure constrains material or assembly choices. The acceptable processing window must still be established for the particular component.
For electronics suppliers, the value is a surface specification that supports the intended user experience and can be reproduced consistently during production.
Construction and architecture: managing the cost of keeping surfaces presentable
Building surfaces face a combination of weather, airborne contamination, and human contact. Nanize identifies architectural applications involving steel and aluminium skins, curtain walls, and surfaces requiring resistance to soiling or graffiti.
For building product manufacturers and property owners, the evaluation should connect surface performance with maintenance practice. A finish that can be cleaned more effectively may offer value through shorter cleaning visits, reduced disruption, or better appearance retention.
Relevant trials should reproduce the intended exposure: sunlight, temperature changes, moisture, cleaning chemicals, and repeated removal of representative contaminants. Graffiti resistance should be assessed using specified marking materials and removal procedures.
The full building product also needs to retain its required fire, adhesion, weathering, and other performance characteristics after the coating is introduced.
For procurement teams, the useful comparison is the cost and performance of maintaining the installed surface over its intended service period.
Renewable energy: evaluating cleaner surfaces where output matters
Nanize highlights solar modules and wind turbine surfaces as areas for evaluating anti-soiling coatings. Its stated approach uses water-repellent and low-friction surface properties to reduce the accumulation and adhesion of dirt.
For solar equipment, the engineering task is to establish a net benefit under local conditions. A coating should preserve relevant optical properties while demonstrating how it affects soiling, cleaning effort, and electrical output over time.
A meaningful field trial compares coated and reference surfaces exposed to the same conditions. Measurements should account for rainfall, dust characteristics, cleaning schedules, and coating wear. A result from one location should be evaluated carefully before being applied to another climate.
Wind turbine applications require their own assessment, including compatibility with the existing blade system, weathering, erosion exposure, and maintenance requirements.
The commercial question is how the surface treatment affects useful energy production and operating costs across the asset’s service life. Measured field performance makes that decision assessable.
Industrial equipment: addressing friction at the working interface
Nanize also identifies industrial manufacturing applications where low-friction surfaces may help manage contact between equipment and products.
Potential evaluation points include guides, conveyors, cutting equipment, and handling components. In these settings, a surface treatment may be considered where sticking, rubbing, marking, or residue affects production.
The right coating depends on the actual contact conditions. Load, speed, temperature, surface roughness, and the contacting material all influence friction and wear. A successful laboratory result should therefore be followed by a representative production trial.
Useful measures include component wear, product marking, cleaning frequency, throughput, and unplanned stops. Where lubrication is already used, any proposed change should be evaluated against the equipment’s operating requirements.
For plant managers, the goal is dependable production. A coating earns its place by improving a measurable operating condition while preserving product quality.
Manufacturing economics: measuring the process as well as the finish
Surface performance and manufacturing performance need to be assessed together. Nanize’s published rapid curing process provides a basis for examining production cycle time and thermal requirements.
Shorter curing can improve throughput where curing is the bottleneck. Lower processing temperatures can be useful where a substrate or assembly has limited thermal tolerance. The size of either benefit depends on the full process, including surface preparation, coating application, drying where required, handling, and inspection.
The most useful financial comparison is cost per accepted component. That calculation should include formulation use, energy, labour, maintenance, scrap, rework, and line capacity.
Likewise, environmental benefits should be measured through relevant operating data. Energy per accepted component, cleaning consumption, and replacement frequency provide a firmer basis for claims than processing temperature alone.
Connecting application development with global PFAS requirements
Regulation should be considered when the product specification is written. The EU has PFHxA restrictions for defined consumer uses alongside a broader PFAS restriction proposal. Canada is pursuing a proposed phased approach excluding fluoropolymers as defined in its assessment, while Australia controls specified PFAS through IChEMS. Their scopes and implementation conditions differ.
For an international manufacturer, the practical response is to define the intended markets and assess the complete product configuration against the applicable requirements. A PFAS-free coating can support that work; the accompanying evidence should identify the formulation, relevant material layers, and basis for the claim.
Turning an application into a production decision
A focused development program can begin with four steps:
- Define the surface requirement. Identify the substrate, operating conditions, cleaning routine, and required appearance or functional performance.
- Agree on measurable criteria. Select the tests and acceptance levels that reflect actual use and customer expectations.
- Run representative trials. Evaluate the coating on the intended component, then confirm the application and curing process under production conditions.
- Document the result. Bring performance data, material declarations, market requirements, and manufacturing economics into one decision.
This gives technical and commercial teams a shared framework for deciding whether a coating is ready for adoption.
Nanize’s role is to bring PFAS-free surface chemistry and curing technology to that development process. The opportunity for manufacturers is to create a finish whose performance, production requirements, and material specification can all be evaluated together.
Discover the application opportunities and start a technical discussion at www.nanize.com.