The global supply chain disruptions of 2020-2022 that lingered, in certain cases, through the end of 2023 caused unprecedented misery throughout the entire global specialty chemicals market space, and the paint and coatings industry suffered mightily as a result. Supply chain disruptions of this magnitude had never previously been experienced on a global basis, and there was a tendency, beginning in late 2023/early 2024 to talk about “The Great Supply Chain Crisis” in the past tense, which—as a specific historical event—was accurate. From the more perceptive survivors of that period, however, there emerged the feeling that there was every likelihood that, far from being a “once in a blue moon” event, major supply chain disruptions would be likely to recur periodically in the future, especially as nations of the world are ruled by increasingly polarized and paranoid governments. Two years later, there seems to be little doubt that they were right. Looking out at the state of global affairs in mid-2026, we have no choice but to ask, “What effects are we going to see down the road as a result of the lengthy closure of the Strait of Hormuz, through which roughly 20% of the world’s crude oil passes on its way to points east, south, and west?”
One could argue, of course, that very little of this crude is headed directly to the Western Hemisphere, and the European Union (EU) receives only about 4% of it. China and other countries in the Asia-Pacific region (APAC), however, receive the lion’s share, and the disruptions to their supply chains affect the entire globe, given the amounts of specialty chemicals, derived from crude oil, which are shipped from the APAC region to the rest of the world. The International Monetary Fund (IMF) estimates that the disruptions caused by the war with Iran could increase global headline inflation (includes food and energy) to 4.4%, assuming that the Strait of Hormuz is opened soon (roughly mid-June), but as high as 5.4% under their “adverse scenario,” which is code, perhaps, for a situation in which the strait remains closed for the indefinite future.
Probability of Global Supply Chain Disruptions
Although not a subject for blissful contemplation, the truth is that supply chain disruptions are likely to become a periodic occurrence in the years ahead—there are sure to be ongoing tensions with Iran that can trigger additional incidents in the Strait of Hormuz; the persistent political instability in oil-producing nations like Libya, Venezuela, and Nigeria threatens sudden, unexpected drops in local production, exacerbating global supply chain friction; and the Houthis are still capable of causing chaos in the Red Sea. While it is true that the oil-producing countries of the Middle East are allocating billions of dollars to create alternate pathways for their crude to bypass the Strait of Hormuz on its way to market, these measures, while significant, can only deal with current known threats. “What we don’t know that we don’t know” will always be lurking around the corner to create the next supply chain interruption, so it doesn’t make sense to build the new pipelines and ports and then breathe a sigh of relief. . . .this would not be a realistic view of the world in which we currently live and isn’t going to improve in any substantive fashion tomorrow or the next day.
The entire global economy depends to a shockingly high degree upon a fragile foundation of crude oil, the commodity and specialty chemicals derived from it, and the vast array of products in all areas of life that are produced from those specialty chemicals. Specifically for the paint and coatings market space, of the components in the cost of goods sold (COGS) equation, global raw material input costs remain the most challenging. The industry average COGS in mid-2026 is approximately 50%, which is higher than what the industry is used to, and it is presenting a series of challenges that formulators have faced on occasion in the past but not in such a concentrated manner as is now the case. Moreover, raw material prices are facing a renewed wave of volatility—it is reasonable to say that the relative stability in raw material pricing following the post-pandemic period of inflation is being impacted by geopolitical disruptions that are wreaking havoc with the industry’s earlier expectations of long-term price moderation. Instability in energy supply and pricing are, more than any other single factor, impacting logistical chokepoints and chemical feedstocks and resulting in a structurally elevated cost basis for paints and coatings producers. This is leading to renewed interest in concepts that should have become second nature to all manufacturers in 2022-2023, but which only particularly astute producers put into practice in any meaningful way:
- Near-shoring, ally-shoring, friend-shoring, onshoring, and favored nation-shoring
- Domestic production contractors to assure sufficient supplies of critical raw materials
- Multiple-sourcing strategies
This is a sobering thought, indeed, and one that should be prepared for by all industries and individual manufacturers that either produce or use specialty chemicals. Historically, in the paint and coatings industry, raw material suppliers and coatings manufacturers were in a genuinely codependent relationship in which what was good for one was good for the other—and in which what was bad for one was bad for both. Today’s reality suggests that raw material suppliers seem to understand this, but it is not at all clear that their paint and coatings customers either understand or appreciate the critical nature of this relationship, as well as the range of potential effects, both positive and negative, that are likely to arise as a result of how they treat this relationship. The industry needs to return to its roots and redevelop those cooperative ties between coatings producers and raw materials suppliers—and the sooner, the better. This should be a cardinal article of every serious strategic plan created by both coatings producers and raw material vendors.
The Glimmer of Light at the End of the Tunnel
It is possible that we are finally beginning to see a hint of this approach being taken in 2026—quite recently, an acquaintance in the distribution arm of the paint and coatings industry indicated that coatings companies seem to be becoming more curious about “what’s new in the world of raw materials” and are relaxing some of their restrictions of the past 10-15 years with regard to the amount of pre-work that the raw material suppliers need to undertake before the coatings companies will take a look at their new products. If this turns out to be a nascent trend, it will be cause for kudos all around and will be guaranteed to produce positive results for whichever coatings producers are involved. It is no secret that there has been, over the past 10-15 years, a deep-seated belief among producers in the coatings industry that “there is nothing new from the raw material suppliers,” and it hasn’t helped anyone in the industry—neither the coatings companies nor their suppliers have benefitted as a result of this uncooperative and, consequently, very non-productive attitude. Why? Because this comment has been uttered in stark contradiction to the continual flow of new raw materials from those selfsame suppliers. A change in attitude about this topic is likely to be the single greatest boon to future coatings growth and successful development of new, value-added products. . . .
That the tide may be turning is hopeful news, indeed, but it will not represent full-fledged “good news” unless it continues into the future. The great paint and coatings developments of the past—latex paint, powder coatings, cathodic electrodeposition, coil coatings, energy-curing coatings, polyurethane dispersions, and several other notable innovations—were only possible as a result of high-level cooperation between raw material suppliers and paint and coatings producers. In the year 2026, nothing has changed—major developments going forward will only be possible with the resumption of increased cooperation between coatings producers and their raw material suppliers.
Opportunities for Innovation Abound—Using Both New and Underused Raw Materials
Strolling aisles of the American Coatings Conference and Show 2026 afforded attendees an impressive opportunity to see how many new raw material products were being introduced, but at least for one attendee (the author) it was also a somewhat bittersweet experience, insofar as it was a reminder of some of the exciting materials introduced over the course of the past two decades that have still not received the level of interest and usage that they clearly deserve. One understands, of course, that some new raw materials that are of interest to one person may not necessarily be of interest to another, but sometimes the neglect is simply the result of lack of proper evaluation time, ineffective sales/distribution efforts/channels, poor marketing, and/or protocols by the paint and coatings producers that put handcuffs on the scientists/technologists who are responsible for new product development. Particularly discomfiting are those cases where a new product is truly unique and made by a single supplier, which tends to evoke terror from the hearts of supply chain managers whose heads might easily be on the chopping block if they are unable to secure appropriate supplies of a critical raw material.
Examples of the latter include items that might be uniquely valuable to the coatings industry if given the chance. For example, Astro-Cooler’s insulated blankets and quilts protect truckload quantities of wines, carbonated beverages, and pharmaceutical items from winter temperatures, and they would presumably be able to prevent waterborne paint from freezing almost as well as wine or carbonated beverages, at a fraction of the cost of temperature-controlled trucks—but no one will know until more companies shipping waterborne paints and coatings evaluate them.
Likewise, many formulators over the past decade have indicated what a remarkable job FP Pigments do maintaining opacity while reducing titanium dioxide loading, for primers and a variety of topcoats, especially in waterborne systems. When queried if they have incorporated these pigments into their products, however, the answer is typically some version of “no—we weren’t allowed.” Why are raves coming from technical people but evincing blank stares from production people, who clearly are not working with them? Whatever the reasons, we should allow for the possibility that it may have little or nothing to do with the value of the materials but rather the willingness to forego potential product improvements for fear of “rocking the boat.” To be a dynamic competitor in a relatively mature industry, no coatings producer can afford to allow fear of change to prevent it from planning, and then executing upon, a forward strategy that will maintain it as a market leader or propel it into a market leadership position.
What Lies Ahead?
Clearly, there are events on the horizon that may or may not happen, but even the absence of any given event will create a degree of global speculation that is going to affect both the markets and the manufacturing businesses themselves, as everyone scrambles to read the tea leaves and plan accordingly. No matter how one looks at it, this is not a pleasant scenario to contemplate. . . .
What is pleasant to contemplate, however, is the following list of new raw materials that has come to my attention during the past year or so, which meet the criteria that I have used in past years for inclusion in my articles:
- That have been introduced into general commerce within the past 24 months
- That their producers affirm are not just “tweaks” on existing products
- That definitely hold the potential to create properties in certain paint and coatings systems that do not currently exist or significantly improve properties in materials that do
CAVEAT: The author sees many such materials every year, and—without endorsing or recommending any of them, either on behalf of himself, The ChemQuest Group, or International Paint and Coatings Magazine—is including some of them in the table below because these products, while chosen both randomly and arbitrarily, are likely to make sense for paint, coatings, adhesive, and sealant formulators (and perhaps other specialty chemical producers, as well) to evaluate, especially if the descriptions of the new materials (provided by their manufacturers) in the table appear to address any properties that would be helpful in creating new commercial formulated products.
|
Supplier |
Product Name |
Raw Material Type |
Manufacturer's Suggested Use(s) |
URL |
|
Allnex USA Inc. |
Cymel® NF 2264/87 WA |
Carbamate-function, W/B formaldehyde-free crosslinker |
W/B industrial coatings |
allnex.com |
|
Allnex USA Inc. |
SETAQUA® 6525 |
Butyl glycol-free acrylic dispersion |
Industrial metal and wood coatings |
allnex.com |
|
Allnex USA Inc. |
UCECOAT® 7520 |
W/B UV polyurethane acrylate dispersion |
Industrial coatings applications |
allnex.com |
|
Allnex USA Inc. |
SETALUX® 57-1612 |
Acrylic resin, hydroxy-functional |
"Toolbox" resin for general industrial coatings for metal, wood, and plastic |
allnex.com |
|
Allnex USA Inc. |
DUROXYN® EY 2500w/40WA |
W/B epoxy-amine/acrylic hybrid resin |
Exterior stains and tannin-blocking primers |
allnex.com |
|
Ashland LLC |
Easy-WetTM 310 |
Silicone-free, modified polyether chemistry; substrate wetting agent |
W/B acrylics, PU dispersions, alkyd emulsions |
ashland.com |
|
Astro-Cooler, Inc. |
Insulative blankets and quilts for intermodal shipping |
Protective covering for shipment/storage of W/B products |
Covering for TL containers that give thermal protection of 25-30°F between air temperature inside the shipping container and the air temperature underneath the blanket/quilt |
astrocooler.com |
|
BASF Corporation (USA) |
Efka® PX 4720 |
Dispersing agent |
Ultra-matte UV formulations |
basf.com |
|
BASF Corporation (USA) |
Tinuvin 5248 |
UV/HALS |
Cementitious substrates |
basf.com |
|
BASF Corporation (USA) |
Ultramid® Advanced N3U42G6 |
Non-halogenated flame retardant based on polyphthalamide |
High-voltage connectors, such as inverters, electric car batteries |
basf.com |
|
Borchers: A Milliken Brand |
Borchi® Guard T |
Oxime-free anti-skinning additive |
S/B oxidatively-cured paints |
borchers.com |
|
Borchers: A Milliken Brand |
Borchi® Kat 2115 |
Tin-free catalyst; neodecanoate metal blend |
1K- and 2K-polyurethane systems, and RTV silicones |
borchers.com |
|
Borchers: A Milliken Brand |
Borchi® Gen 0311 |
APOE-free, tin-free dispersing agent |
S/B polyurethane systems |
borchers.com |
|
Byk-Chemie GmbH |
BYK® -1810 |
PFAS-free, silicone-free |
Defoamer; recommended for high-gloss alkyd paint |
byk.com |
|
Cabot Corporation |
CAB-O-SIL® MT-6460 |
Fumed silica |
Wood and leather; provide matting and smooth surface appearance and clarity |
cabotcorp.com/coatings |
|
Cargill Bioindustrial |
PriNextTM |
Acetoacetate polymer |
Alternative to 2K polyurethane systems; crosslinks by Michael-type reaction |
cargill.com/bioindustrial |
|
Chemours Company |
Ti-Pure™ TS-6706 |
TMP- and TME-free universal titanium dioxide |
W/B, S/B, and powder coatings |
chemours.com |
|
Clariant AG |
Ceridust® 1310 |
Micronized rice bran wax; bio-based and PFAS free |
Premium matte finishes for magazines, specialty labels, and W/B coatings that require superior scuff resistance |
clariant.com |
|
Clariant AG |
Exolit AP 422A |
Flame retardant, melamine-free |
Intumescent coatings where there are concerns with the incorporation of melamine |
clariant.com |
|
Croda Industrial Specialties |
ECO RENEX PEG 1000 PU |
Bio-PEG solvent/rheology modifiers; 100% renewable |
W/B architectural, industrial, and wood coatings |
crodaindustrialspecialties.com |
|
Dow Chemical Company |
TRITON™ FCX-810 |
Anti-block additive |
W/B coatings; provides early and hot anti-block resistance |
dow.com |
|
Dow Chemical Company |
DOWSILTM IC-3001 |
Low-VOC silicone-organic hybrid blend |
Sprayable thermal insulation corrosion-under-insulation coatings |
dow.com |
|
ECKART GmbH |
STANDART® pcs |
Non-leafing aluminum |
Powder coatings used for high-quality surfaces |
eckart.net |
|
Elementis Specialties, Inc. (USA) |
DAPRO® BIP 9910 |
Bio-based defoamer |
W/B architectural, industrial, and wood coatings |
elementis.com |
|
Engineered Polymer Solutions, Inc. |
EPS® 2731 |
Acrylic resin; non-APEO, fluorosurfactant free |
Flat and semi-gloss exterior coatings |
eps.com |
|
Eternal Chemical Co. Ltd. |
ETERFLON 4262A, 4265P, 42632-KL, 4273 |
S/B fluoro-silicone acrylate |
Industrial coatings; provides stain resistance, flexibility, abrasion resistance |
eternal-group.com |
|
Eternal Chemical Co. Ltd. |
ETERFLON 43301 |
FEVE dispersion |
Protective coatings; exceptional durability |
eternal-group.com |
|
Ethoxy Chemicals |
E-Sperse® FT 600 |
Non-ionic surfactant/emulsifier |
W/B coatings |
ethox.com |
|
Evonik Corporation (USA) |
TEGO® Dispers 780W |
Dispersing additive |
W/B ink formulations |
evonik.com |
|
Evonik Corporation (USA) |
TEGO® Foamex 8051 |
Polyether siloxane |
W/B industrial and architectural coatings, inks, pigment concentrates |
evonik.com |
|
Evonik Corporation (USA) |
TEGO® Wet 270 eCO |
Polyether siloxane |
Industrial coatings; provides low COF, defoaming, improves flow |
evonik.com |
|
Evonik Corporation (USA) |
TEGO® Dispers 69 |
Hyperdispersant; 100% active |
Radiation-curing and S/B PU inks |
evonik.com |
|
FireXNull |
FXN microcapsule |
Encapsulated fluorinated ketone |
Fire suppressant |
firexnull.com |
|
FP Pigments, Inc. (USA) |
FP-440, FP-460, FP-470 |
Hollow‑core, engineered inorganic opacity pigment consisting of a voided particle with a mineral shell and tailored surface chemistry |
Opacity pigments for primers and high PVC coatings; can replace 5-20% of a coatings TiO2 |
fp-pigments.com |
|
Huber Advanced Materials |
Pergopak® M7 |
Ultra-fine polyurea |
PFAS-free matting and effect; replaces PTFE for low CoF requirements |
huber.com |
|
Hubergroup Chemicals |
ELARA |
Family of tailored additives |
Coatings and printing inks |
hubergroup.com |
|
Ingevity Corporation |
Capa® polycaprolactone polyols |
Diols, triols, and tetraols |
Improve adhesion of 2K PUs on low-energy substrates |
ingevity.com |
|
Integrity Biochem |
2nd Generation materials, AN-10 & AN-11 |
Functionalized polysaccharide dispersants |
Architectural coatings |
integritybiochem.com |
|
Itaconix plc |
BIO*Asterix® product line |
Specialty derivatives of itaconic acid |
Replacement for acrylate, methacrylate, styrene monomers |
itaconix.com |
|
King Industries |
K-FLEX® XM-3018 |
Water-reducible polyester polyol |
Resin modifier to enhance durability and mechanical properties |
kingindustries.com |
|
Kukdo Chemical Co., Ltd. |
KDBM-1010 |
Isosorbide-type epoxy; renewable, BPA-free; di-glycidyl functionality |
Industrial coatings, composites, adhesives |
kukdo.com |
|
Kuraray Co., Ltd. Isoprene Chemical Division |
MTHP |
Reactive diluent; 2-methytetrahydrofuran |
Substitute for halogenated solvents |
isoprene.kuraray.com |
|
LANXESS Corporation |
KoalexTM MFX & MFE |
Multifunctional coalescents |
Architectural coatings; film formation at lower VOC |
lanxesds.com |
|
Living Ink Technologies, Inc. |
Algae InkTM |
Carbon black, produced by pyrolizing algae biomass |
Inks, personal care, textiles |
livingink.co [sic] |
|
Lubrizol Corporation |
Sancure™ 20898 |
Polyurethane dispersion |
Coatings for hot-stamp foil holographic packaging |
lubrizol.com |
|
Lubrizol Corporation |
TurbosetTM 5000HS |
Polyurethane dispersion; self-crosslinking |
Wood finishes |
lubrizol.com |
|
Lubrizol Corporation |
Sancure™ 20898 |
Polyurethane dispersion; free of APEO, NMP, NEP, and TEA |
Hot-stamping foil market |
lubrizol.com |
|
MAFLON S.p.a. |
RHEOSIN® |
Associated thickeners based on polyurethane chemistry |
Architectural coatings |
maflon.com |
|
Micro Powders, Inc. |
MicroTex® 950 |
PTFE/PFAS biopolymer based on polyolefin |
Texturing agent for powder coatings |
micropowders.com |
|
Microban International |
AkoTech Platform |
Advanced polymer chemistry + surface‑engineering additives, with optional Microban antimicrobial actives (i.e., silver- or zinc-based, quaternary amines, etc.) |
Architectural coatings; industrial S/B or W/B coatings |
microban.com |
|
NOF American Corporation |
MARPROFFTM GP-012024 |
Acrylic polymer with epoxy groups |
Resin modification, reactive emulsified, water-soluble binder |
nof.co.jp/english |
|
NOF American Corporation |
MODIPER® WR |
PFAS-free, Si-free acrylic polymer |
Coatings for textiles, leather, and papers |
nof.co.jp/english |
|
Nouryon Specialty Chemicals, B.V. |
Expancel® BIO 110 DEP |
Pre-expanded lightweight filler; 55% biobased microsphere; cellulose ester backbone |
Used where lightweighting is desired |
nouryon.com |
|
Nouryon Specialty Chemicals, B.V. |
Alcosperse® OTA-100 |
Polyacrylate and polycarboxylate polymers |
Dispersing agents and rheology modifiers in W/B coatings |
nouryon.com |
|
Pflaumer Brothers, Inc. |
TERAMINE® 72 |
Epoxy hardener |
Internal linings for pipes, tanks, and containment vessels |
pflaumer.com |
|
Pflaumer Brothers, Inc. |
TERASIL® 1NS |
Single-component, moisture-cure hydrogel silane |
Concrete, polycarbonate, metal wood, and composites; provide adhesion and early return to service |
pflaumer.com |
|
Power Dream Chemical Co., Ltd. |
PLA Polyol, PLA-COOH, PLA-based UV resins |
PLA polymers and oligomers |
UV-cure coatings and inks |
powerdream.com |
|
Rahn AG |
GENOMER® 4236 |
Difunctional aliphatic urethane acrylate |
UV/EB/LED-curable coatings and inks |
rahn-group.com |
|
Resine Italiane |
Resiprene 35 |
Cyclized rubber resin |
High chemical resistance; coatings on steel and concrete |
resineitaliane.com |
|
Runhe Chemical (Guangzhou) Co., LTD |
UM series UR series |
UM: mono-, di-, and multi-functional monomers |
Specialty monomers and oligomers for UV/EB curing |
rhchems.com |
|
Sun Chemical Corporation |
ACI-5000 SunPURO® Natural V |
Charcoal powder, 100% natural origin |
Personal care, skincare care |
sunchemical.com |
|
Sunpol Resin Pvt. Ltd. |
Product 4501 |
100% solids castor long-oil alkyd |
Penetrating stains; low viscosity, low color, fast drying |
sunpol.com |
|
Syensqo USA LLC |
Rhodoline® 6100 |
Dispersing agent |
Low VOC, APES free, 33% bio-based materials |
syensqo.com |
|
Synthomer USA LLC |
PLIOTEC™ XA 3077 |
Acrylic binder; provides exceptional resistance to environment staining |
Low-VOC exterior masonry |
synthomer.com |
|
Tulco Inc. |
TULLANOX® HMDZ & PDMS treated silicas |
Hexamethyldisilazane- and polydimethylsiloxane-silica hydrophobic silicas |
Improved moisture resistance and powder flow |
tulco.us |
|
Vinavil S.p.A. |
Crilat 4825 |
Acrylic copolymer dispersion |
Elastomeric wall and masonry coatings; crack-bridging protection |
vinavil.com |
Going Forward
Historically, raw material suppliers and their paint and coatings producer customers worked together to produce new and improved products in “win-win” collaborations, but that has not been the case for at least the past 10-15 years, perhaps longer. Continuation of that trend does not bode well for the long term, and we all need to hope that common sense will once again prevail and reverse its course. Raw material suppliers need to be incentivized to develop new products that will generate sufficient sales and margins to justify their investment in R&D; it is pretty much as simple as that.
Moreover, The Great Supply Chain Crisis of 2020-2022 was not a unique event—it was just the first in what will be a series of difficult events, but the only way in which paint and coatings producers can deal with future supply chain disruptions is to learn the profound, although painful, lessons learned during the 2020-2022 and apply them to their current and future business practices. Those that did are in good shape today as they head into an uncertain future. Those that did not are already gone or are on shaky ground heading into the second half of 2026 and beyond. Survival is a tricky business during supply chain disruptions, and actually flourishing during such periods depends upon doing just about everything right, including making sure that R&D laboratories are appropriately staffed to take care of the inevitable “supply chain issues” while at the same time maintaining their focus on both tactical product development and strategic research and development on the new platforms of the future.
Taking advantage of raw material breakthroughs is key to being able to do this. Although they may not be effective in all systems or at all levels, new raw materials are being developed. Many of these new materials are sufficiently unique, however, that they are unlikely to produce optimal results when simply “dropped in” for an existing material—but it is quite likely that they will add value to certain products, at certain levels, and this is known as having “a competitive edge.” It is a balancing act, but it can be done—and those companies that learned their lessons from the Great Supply Chain Crisis of 2020-2022 are doing it. What is stopping you?
Read in ipcm.
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