The Global Market for Antimicrobial Additives and Coatings to 2030

March 2021 | 305 pages | ID: G369E47DBD6BEN
Future Markets, Inc.

Abstracts

In the light of the global COVID-19 crisis, opportunities in antimicrobial coatings and additives are growing fast, with previous market hindrances such as cost less of an issue for application in healthcare, touch screens and packaging. Antimicrobial coatings can provide long-lasting protection against fungi, bacteria and in some case, viruses. They are used to sterilize medical devices and surfaces to mitigate the impact of healthcare associated infections. Antimicrobial coatings are also being increasingly adopted in food processing and packaging, aerospace, interiors, glass, HVAC ventilation and a wide range of high touch areas.

Report contents include:

• Assessment of antimicrobial coatings including nanosilver/silver-ion coatings, copper coatings, photocatalytic coatings, Silane Quaternary Ammonium Compounds, biobased antimicrobial coatings, hydrogels, antimicrobial enzymes, adaptive biomaterials, piezoelectrics, polyDADMAC, liquid metals and antimicrobial nanomaterials.
• Market revenues for antimicrobial coatings to 2030, by markets and technologies.
• Assessment of end users markets for antimicrobial coatings including household and indoor surfaces, medical and healthcare settings, clothing and medical textiles, food packaging and processing etc.
• 192 company profiles including products, technology base, target markets and contact details. Companies features include Allied Bioscience, Advanced Materials-JTJ s.r.o., Bio-Fence, Bio-Gate AG, Covalon Technologies Ltd., Dyphox, EnvisionSQ, GrapheneCA, Halomine, Inc. , Integricote, Nano Came Co. Ltd., NanoTouch Materials LLC, NitroPep, OrganoClick, HeiQ Materials, Green Earth Nano Science, Kastus, sdst, myNano and many more.

Contents

1 EXECUTIVE SUMMARY

1.1 Antimicrobial additives and coatings market growing
  1.1.1 Advantages
  1.1.2 Properties
  1.1.3 Applications
1.2 Antimicrobial and anti-viral coatings and surfaces
  1.2.1 Self-cleaning antimicrobial coatings and surfaces
    1.2.1.1 Bionic self-cleaning coatings
    1.2.1.2 Photocatalytic self-cleaning coatings
    1.2.1.3 Anti-fouling and easy-to-clean nanocoatings
  1.2.2 Anti-viral coatings and surfaces
  1.2.3 Nanomaterials applications
  1.2.4 Cleanliness of indoor and public areas driving demand for antimicrobials
  1.2.5 Application in healthcare environments
    1.2.5.1 COVID-19 and hospital-acquired infections (HAIs)
    1.2.5.2 Reusable Personal Protective Equipment (PPE)
    1.2.5.3 Facemask coatings
    1.2.5.4 Wipe on coatings
    1.2.5.5 Long-term mitigation of surface contamination with nanocoatings
1.3 Main market players by antimicrobial technology area
1.4 Global market size and opportunity to 2030
  1.4.1 End user markets for antimicrobial coatings
  1.4.2 Global forecast for antimicrobial coatings to 2030
1.5 Market and technical challenges
1.6 Market drivers and trends

2 TYPE OF ANTIMICROBIAL COATINGS

2.1 Metallic-based coatings
2.2 Polymer-based coatings
2.3 Mode of action
2.4 Nanosilver or silver-ion antimicrobial coatings and additives
  2.4.1 Properties
    2.4.1.1 Antiviral properties of AgNPs
  2.4.2 Mode of action
  2.4.3 Environmental and safety considerations
  2.4.4 SWOT analysis
  2.4.5 Products and applications
    2.4.5.1 Silver nanocoatings
    2.4.5.2 Antimicrobial silver paints
  2.4.6 Markets
    2.4.6.1 Textiles
    2.4.6.2 Wound dressings and medical
    2.4.6.3 Consumer products
    2.4.6.4 Air filtration
2.5 Copper antimicrobial coatings and additives
  2.5.1 Properties
  2.5.2 Mode of action
  2.5.3 SWOT analysis
  2.5.4 Application in antimicrobial coatings
2.6 Zinc oxide coatings and additives
  2.6.1 Properties
  2.6.2 Mode of action
  2.6.3 Application in antimicrobial coatings
2.7 Photocatalytic coatings (Titanium Dioxide)
  2.7.1 Development of photocatalytic coatings
    2.7.1.1 Market drivers and trends
  2.7.2 Mode of action
  2.7.3 Glass coatings
  2.7.4 Interior coatings
  2.7.5 Improving indoor air quality
  2.7.6 Application in antimicrobial coatings
    2.7.6.1 Self-Cleaning coatings-glass
    2.7.6.2 Self-cleaning coatings-building and construction surfaces
    2.7.6.3 Photocatalytic oxidation (PCO) indoor air filters
    2.7.6.4 Water treatment
    2.7.6.5 Medical facilities
    2.7.6.6 Antimicrobial coating indoor light activation
2.8 Gold Nanoparticles (AuNPs)
  2.8.1 Properties
  2.8.2 Mode of action
2.9 Quaternary ammonium silane
  2.9.1 Mode of action
  2.9.2 Application in antimicrobial coatings
  2.9.3 Companies
2.10 Biobased antimicrobial coatings
  2.10.1 Chitosan
    2.10.1.1 Properties
    2.10.1.2 Application in antimicrobial coatings
  2.10.2 Antimicrobial peptide (AMP) coatings
    2.10.2.1 Properties
    2.10.2.2 Mode of action
    2.10.2.3 Application in antimicrobial coatings
  2.10.3 Nanocellulose (Nanocrystalline, Nanofibrillated, and Bacterial Cellulose)
    2.10.3.1 Properties
    2.10.3.2 Application in antimicrobial coatings
  2.10.4 Adaptive biomaterials
    2.10.4.1 Properties
    2.10.4.2 Application in antimicrobial coatings
2.11 Hydrogels
  2.11.1 Properties
  2.11.2 Application in antimicrobial coatings
2.12 Antibacterial liquid metals
  2.12.1 Properties
2.13 Self-cleaning antimicrobial coatings
  2.13.1 Hydrophilic coatings
  2.13.2 Hydrophobic coatings
    2.13.2.1 Properties
    2.13.2.2 Application in facemasks
2.14 Superhydrophobic coatings and surfaces
  2.14.1 Properties
    2.14.1.1 Antibacterial use
2.15 Oleophobic and omniphobic coatings and surfaces
  2.15.1 SLIPS
  2.15.2 Covalent bonding
  2.15.3 Step-growth graft polymerization
2.16 Other antimicrobial materials additives in coatings
  2.16.1 Graphene
    2.16.1.1 Properties
    2.16.1.2 Graphene oxide
    2.16.1.3 Anti-bacterial activity
    2.16.1.4 Reduced graphene oxide (rGO)
    2.16.1.5 Application in antimicrobial coatings
  2.16.2 Silicon dioxide/silica nanoparticles (Nano-SiO2)
    2.16.2.1 Properties
    2.16.2.2 Application in antimicrobial coatings
  2.16.3 Polyhexamethylene biguanide (PHMB)
    2.16.3.1 Properties
    2.16.3.2 Application in antimicrobial coatings
  2.16.4 Single-walled carbon nanotubes (SWCNTs)
    2.16.4.1 Properties
    2.16.4.2 Application in antimicrobial coatings
  2.16.5 Fullerenes
    2.16.5.1 Properties
    2.16.5.2 Application in antimicrobial coatings
  2.16.6 Cerium oxide nanoparticles
    2.16.6.1 Properties
  2.16.7 Iron oxide nanoparticles
    2.16.7.1 Properties
  2.16.8 Magnesium oxide nanoparticles
    2.16.8.1 Properties
  2.16.9 Piezoelectrics

3 ENVIRONMENTAL AND REGULATORY

4 MARKETS FOR ANTIMICROBIAL COATINGS

4.1 HOUSEHOLD AND INDOOR SURFACES
  4.1.1 Market drivers and trends
  4.1.2 Applications
    4.1.2.1 Self-cleaning and easy-to-clean
    4.1.2.2 Indoor pollutants and air quality
  4.1.3 Global market size
4.2 MEDICAL & HEALTHCARE SETTINGS
  4.2.1 Market drivers and trends
  4.2.2 Applications
    4.2.2.1 Medical surfaces and Hospital Acquired Infections (HAI)
    4.2.2.2 Wound dressings
    4.2.2.3 Medical equipment and instruments
    4.2.2.4 Fabric supplies scrubs, linens, masks (medical textiles)
    4.2.2.5 Medical implants
  4.2.3 Global market size
4.3 CLOTHING AND TEXTILES
  4.3.1 Market drivers and trends
  4.3.2 Applications
    4.3.2.1 Antimicrobial clothing
  4.3.3 Global market size
4.4 FOOD & BEVERAGE PRODUCTION AND PACKAGING
  4.4.1 Market drivers and trends
  4.4.2 Applications
    4.4.2.1 Antimicrobial coatings in food processing equipment, conveyor belts and preparation surfaces
    4.4.2.2 Antimicrobial coatings and films in food packaging
  4.4.3 Global market size
4.5 OTHER MARKETS
  4.5.1 Automotive and transportation interiors
  4.5.2 Water and air filtration

5 ANTIMICROBIAL COATINGS COMPANY PROFILES

6 RECENT RESEARCH IN ACADEMIA

7 AIMS AND OBJECTIVES OF THE STUDY

8 RESEARCH METHODOLOGY

9 REFERENCES

Tables

TABLES

Table 1. Summary for bionic self-cleaning nanocoatings.
Table 2. Market summary for photocatalytic self-cleaning coatings.
Table 3. Summary of anti-fouling and easy-to-clean coatings.
Table 4. Anti-viral nanomaterials that inactivate different types of viruses, in preclinical assays in vitro.
Table 5. Applications of nanomaterials used in Advanced Bactericidal & Viricidal Coatings and Surfaces.
Table 6. Main market players by antimicrobial technology area.
Table 7. End user markets for antimicrobial coatings.
Table 8. Total global revenues for antimicrobial coatings, 2019-2030, USD.
Table 9. Total global revenues for antimicrobial coatings, 2019-2030, millions USD, conservative estimate, by coatings type.
Table 10. Market and technical challenges for antimicrobial coatings.
Table 11. Market drivers and trends in
Table 12. Polymer-based coatings for antimicrobial coatings and surfaces.
Table 13. Growth Modes of Bacteria and characteristics.
Table 14. Antibacterial properties of AgNPs.
Table 15. Antiviral properties of AgNPs.
Table 16. SWOT analysis for application of nanosilver and silver-ion antimicrobial coatings.
Table 17. Markets and applications for nanosilver-based Advanced Bactericidal & Viricidal Coatings and Surfaces.
Table 18. Antibacterial applications of Cu and CuO-based nanoparticles.
Table 19. SWOT analysis for application of copper antimicrobial coatings.
Table 20. Antibacterial effects of ZnO NPs in different bacterial species.
Table 22. Photocatalytic coatings- principles, properties and applications.
Table 23. Development of photocatalytic coatings, by generation.
Table 26. Antibacterial applications of Au-based nanoparticles.
Table 27. Companies developing antimicrobial Silane Quaternary Ammonium Compounds.
Table 28. Mechanism of chitosan antimicrobial action.
Table 29. Types of antibacterial AMP coatings.
Table 30. AMP contact-killing surfaces.
Table 31. Types of adaptive biomaterials in antimicrobial coatings.
Table 32. Types of antibacterial hydrogels.
Table 33. Contact angles of hydrophilic, super hydrophilic, hydrophobic and superhydrophobic surfaces.
Table 34. Applications of oleophobic & omniphobic coatings.
Table 35. Graphene properties relevant to application in coatings.
Table 36. Bactericidal characters of graphene-based materials.
Table 37. Markets and applications for antimicrobial and antiviral graphene coatings.
Table 38. Types of carbon-based nanoparticles as antimicrobial agent, their mechanisms of action and characteristics.
Table 39. Global antimicrobial technology regulations.
Table 40: Market drivers and trends for antimicrobial coatings in household and indoor surface market.
Table 41: Market for antimicrobial coatings in household and indoor surfaces to 2030, by revenues and types.
Table 42: Market drivers and trends for antimicrobial coatings in medicine and healthcare.
Table 43: Nanocoatings applied in the medical industry-type of coating, nanomaterials utilized, benefits and applications.
Table 44. Types of advanced antimicrobial medical device coatings.
Table 45. Types of advanced coatings applied in medical implants.
Table 46. Nanomaterials utilized in medical implants.
Table 47. Market for antimicrobial coatings in medical and healthcare settings to 2030, by revenues and types.
Table 48: Market drivers and trends for antimicrobial coatings in the textiles and apparel industry.
Table 49. Applications in textiles, by advanced materials type and benefits thereof.
Table 50. Advanced coatings applied in the textiles industry-type of coating, nanomaterials utilized, benefits and applications.
Table 51. Market for antimicrobial coatings in clothing and textiles to 2030, by revenues and types.
Table 52. Market drivers and trends for antimicrobial coatings in the packaging market.
Table 53. Market for antimicrobial coatings in food and beverage production & packaging to 2030, by revenues and types.
Table 54. Advanced coatings applied in the automotive industry.
Table 55. Applications in air and water filters, by advanced materials type and benefits thereof.
Table 56. Advanced Bactericidal & Viricidal Coatings and Surfaces development in academia.

Figures

FIGURES

Figure 1. Self-cleaning superhydrophobic coating schematic.
Figure 2. Principle of superhydrophilicity.
Figure 3. Schematic of photocatalytic air purifying pavement.
Figure 4. Schematic of anti-viral coating using nano-actives for inactivation of any adhered virus on the surfaces.
Figure 5. Face masks coated with antibacterial & antiviral nanocoating.
Figure 6. Global revenues for antimicrobial coatings, 2019-2030, USD, conservative estimate.
Figure 7. Total global revenues for Advanced Bactericidal & Viricidal Coatings, 2019-2030, millions USD, conservative estimate, by coatings type.
Figure 8. Antibacterial mechanisms of metal and metallic oxide nanoparticles.
Figure 9. Antiviral mechanism of silver nanoparticles.
Figure 10. Antibacterial modes of action of, and bacterial resistance towards silver.
Figure 11. Antibacterial activities of silver nanoparticles.
Figure 12. Antibacterial modes of action of, and bacterial resistance towards copper.
Figure 13. Schematic of antibacterial activity of ZnO NPs.
Figure 14. Titanium dioxide-coated glass (left) and ordinary glass (right).
Figure 15. Schematic of photocatalytic indoor air purification filter.
Figure 16. Schematic indoor air filtration.
Figure 17. Mechanism of photocatalysis on a surface treated with TiO2 nanoparticles.
Figure 18. Schematic showing the self-cleaning phenomena on superhydrophilic surface.
Figure 19. Schematic of photocatalytic air purifying pavement.
Figure 20. Self-Cleaning mechanism utilizing photooxidation.
Figure 21. Photocatalytic oxidation (PCO) air filter.
Figure 22. Schematic of photocatalytic water purification.
Figure 23. Antibacterial mechanisms and effects of functionalized gold nanoparticles.
Figure 24. TEM images of Burkholderia seminalis treated with (a, c) buffer (control) and (b, d) 2.0 mg/mL chitosan; (A: additional layer; B: membrane damage).
Figure 25. Antimicrobial peptides mode of action.
Figure 26. Types of nanocellulose.
Figure 27. Applications of antibacterial hydrogels
Figure 28. (a) Water drops on a lotus leaf.
Figure 29. A schematic of (a) water droplet on normal hydrophobic surface with contact angle greater than 90° and (b) water droplet on a superhydrophobic surface with a contact angle > 150°.
Figure 30. Contact angle on superhydrophobic coated surface.
Figure 31. Self-cleaning nanocellulose dishware.
Figure 32. SLIPS repellent coatings.
Figure 33. Omniphobic coatings.
Figure 34. Antimicrobial activity of Graphene oxide (GO).
Figure 35. Hydrophobic easy-to-clean coating.
Figure 36. Mechanism of antimicrobial activity of carbon nanotubes.
Figure 37. Fullerene schematic.
Figure 38. Schematic representation of the antibacterial mechanism of cerium-based materials.
Figure 39. Piezoelectric antimicrobial mechanism.
Figure 40. Market for antimicrobial coatings in household and indoor surfaces to 2030, by revenues and types.
Figure 41. Nano-coated self-cleaning touchscreen.
Figure 42. Anti-bacertial sol-gel nanoparticle silver coating.
Figure 43. Market for antimicrobial coatings in medical and healthcare settings to 2030, by revenues and types.
Figure 44. Omniphobic-coated fabric.
Figure 45. Market for antimicrobial coatings in clothing and textiles to 2030, by revenues and types.
Figure 46. Steps during food processing and where contamination might occur from various sources.
Figure 47. Oso fresh food packaging incorporating antimicrobial silver.
Figure 48. Market for antimicrobial coatings in food and beverage production & packaging to 2030, by revenues and types.
Figure 49. CuanSave film.
Figure 50. Lab tests on DSP coatings.
Figure 51. GermStopSQ mechanism of action.
Figure 52. GrapheneCA anti-bacterial and anti-viral coating.
Figure 53. NOx reduction with TioCem®.
Figure 54. Microlyte® Matrix bandage for surgical wounds.
Figure 55. Self-cleaning nanocoating applied to face masks.
Figure 56. NanoSeptic surfaces.
Figure 57. NascNanoTechnology personnel shown applying MEDICOAT to airport luggage carts.
Figure 58. Heavy bacterial recovery from untreated fiber (left) versus Ultra-Fresh antimicrobial treated fiber (right) after testing using the ISO 20743 test method (Staphylococcus aureus test organism).
Figure 59. V-CAT® photocatalyst mechanism.
Figure 60. Applications of Titanystar.