ChemAbout

ChemAbout is a B2B platform where chemical buyers and suppliers discover each other.

Post a purchase requestList your products (for suppliers)
© 2026 ChemAbout
Compound Index|Demand Board|Insights|Exhibitions|Compliance|Help Center|Privacy Policy|Terms of Service|[email protected]

Insights

Chemical Industry Insights by ChemAbout

Analysis that starts from specific chemicals and raw materials — grounded in published literature, company announcements, regulatory documents, and industry data — unpacking the science, manufacturing, and compliance behind them, alongside chemical regulations, materials technology, company moves, and supply-chain risks. Fact-based industry observation and judgment.

Latest articles

Continue through the broader archive covering procurement, compliance, supplier evaluation, and product workflow topics.

Page 2

Why Can a Molecule of Just ~31 Amino Acids Reshape Modern Pharma? Reading the Next Blockbuster Through the Chemical Design of Semaglutide
ArticleJul 15, 2026

Why Can a Molecule of Just ~31 Amino Acids Reshape Modern Pharma? Reading the Next Blockbuster Through the Chemical Design of Semaglutide

GLP-1 began as one incretin hormone in a physiology textbook; today nearly every major pharma runs a GLP-1 program. Reading the industry through the chemistry of semaglutide: why native GLP-1 (~2-minute half-life) is undruggable, how an Aib substitution + a C18 albumin-binding fatty chain turned it into a once-weekly drug, why ~31 amino acids sits near the edge of SPPS, and why the real moat is process + qualification + supply chain, not the formula. Every key number cited to a primary source. Not medical advice.

Read article
CRO vs CMO vs CDMO: What's the Difference? A Guide to the Pharma Outsourcing Value Chain
ComparisonJul 14, 2026

CRO vs CMO vs CDMO: What's the Difference? A Guide to the Pharma Outsourcing Value Chain

CRO, CMO and CDMO differ by a letter or two but sit at completely different points on the drug value chain, carry different regulatory responsibility, and run on different business models. A fact-based map of the boundaries, the overlap, and the CRDMO trend now stitching them back together.

Read article
Why Can Only a Handful of Companies Make Advanced Photoresist? A Deep Dive from Photochemistry to Semiconductor Supply Chains
ArticleJul 13, 2026

Why Can Only a Handful of Companies Make Advanced Photoresist? A Deep Dive from Photochemistry to Semiconductor Supply Chains

Photoresist is a translator: it converts optical information into chemical information, then a physical pattern, then an electronic device. Every reduction in exposure wavelength - g-line to i-line to KrF to ArF to EUV - has forced this translator to rewrite itself, from the invention of chemical amplification at IBM in 1982 to today's photon-shot-noise limits at EUV. This deep dive traces the chemistry, the 2019 Japan-Korea export control episode, and why the real moat is process, qualification, data and time - not the formula.

Read article
Can Potassium Ferrate Replace Chlorine and PAC? Mechanism, Cost and Regulatory Status of a Dual-Function Oxidant
ArticleJul 13, 2026

Can Potassium Ferrate Replace Chlorine and PAC? Mechanism, Cost and Regulatory Status of a Dual-Function Oxidant

Potassium ferrate is marketed as a single chemical that does what chlorine and PAC do in two steps - oxidize, then coagulate. This article explains the redox mechanism behind that dual function, why stable solid ferrate is expensive to manufacture, how its regulatory status for drinking water is evaluated product-by-product (including China's GB/T 17218 permit regime), and why it hasn't replaced chlorine and PAC at most plants. Peer-reviewed sources throughout.

Read article
Why Does Dimethyl Disulfide (DMDS) Show Up in Refinery, Farm, and Food-Flavor Supply Chains?
ArticleJul 13, 2026

Why Does Dimethyl Disulfide (DMDS) Show Up in Refinery, Farm, and Food-Flavor Supply Chains?

DMDS (CAS 624-92-0) is a refinery catalyst presulfiding agent, an EPA-registered soil fumigant, and a FEMA GRAS flavor compound — three separate regulatory regimes under one CAS number. Here's what buyers need to confirm before sourcing it.

Read article
Why Do NAD⁺ Suppliers Usually Also Sell D-Ribose? The Science, Manufacturing and Sourcing Logic Behind a Common Raw-Material Pairing
ArticleJul 12, 2026

Why Do NAD⁺ Suppliers Usually Also Sell D-Ribose? The Science, Manufacturing and Sourcing Logic Behind a Common Raw-Material Pairing

Nearly every supplier that sells β-NAD⁺ also offers D-ribose. This article explains why - from the shared PRPP/ribose biochemistry to a common fermentation-and-purification manufacturing platform, the grade-and-regulatory logic of sourcing, and why β-NAD⁺ is a high-value, degradation-prone material. What connects the two is a supply chain, not a function. States only verifiable facts; no health claims.

Read article
HATU, HBTU and T3P: How Three Peptide Coupling Reagents Actually Differ — Mechanism, Epimerization, and Handling
ArticleJul 12, 2026

HATU, HBTU and T3P: How Three Peptide Coupling Reagents Actually Differ — Mechanism, Epimerization, and Handling

HATU, HBTU and T3P dominate peptide and pharma amide-bond formation, but they differ in reactivity, epimerization, workup and — critically — regulatory status. Grounded in the El-Faham & Albericio review and the ACS GCIPR safety assessment, this article sets out how the three reagents actually differ, why HATU couples cleaner than HBTU, and why T3P is a CWC Schedule 2 controlled chemical while HATU and HBTU are not.

Read article
1,3-Propane Sultone as a Li-ion Electrolyte Additive: How It Builds the SEI, What Battery Grade Really Means, and the Regulatory Record
ArticleJul 12, 2026

1,3-Propane Sultone as a Li-ion Electrolyte Additive: How It Builds the SEI, What Battery Grade Really Means, and the Regulatory Record

1,3-Propane sultone (PS, CAS 1120-71-4) appears in almost every high-voltage or high-temperature Li-ion electrolyte recipe. Grounded in first-principles studies and the current ECHA/CLP record, this article covers how PS builds the SEI before the solvent breaks down, the trace parameters that define battery grade, and the regulatory status of a Category 1B carcinogen on the REACH Candidate List.

Read article
Semiconductor Materials, PFAS Alternatives, Green Methanol, Advanced Polymers, AI-Designed Catalysts: Five Material Directions Worth Tracking Over the Next Five Years
ArticleJul 6, 2026

Semiconductor Materials, PFAS Alternatives, Green Methanol, Advanced Polymers, AI-Designed Catalysts: Five Material Directions Worth Tracking Over the Next Five Years

Between 2024 and 2026, some material directions advanced roughly on schedule — silicon carbide, carbon fiber — while others, like PFAS alternatives, green methanol and AI-designed catalysts, show a real gap between what's been announced and what's actually deployed. This piece separates genuine, dated progress from hype and unproven claims across five materials directions, drawing on English, Japanese and German primary sources.

Read article
US Commerce Department Signs $500 Million CHIPS Act R&D Award With SandboxAQ
ArticleJul 1, 2026

US Commerce Department Signs $500 Million CHIPS Act R&D Award With SandboxAQ

On 17 June 2026, the U.S. Department of Commerce and SandboxAQ signed a definitive $500 million CHIPS Act R&D award to use physics-based AI for discovering new semiconductor-manufacturing chemistries, including PFAS-free alternatives.

Read article
Therapeutic Peptides in 2026: This Year's Breakthroughs
ArticleJun 27, 2026

Therapeutic Peptides in 2026: This Year's Breakthroughs

2026 has been a concentrated year for peptide therapeutics. Efficacy reached a new high in late-stage trials, the obesity field moved beyond the incretins to amylin, the oral route reached weight management, and peptide-guided radioligand therapy kept advancing — each point tied to a specific 2025–2026 result.

Read article
What Are Electronic Resins? The Polymers Inside Chips, Substrates, and Circuit Boards
ArticleJun 23, 2026

What Are Electronic Resins? The Polymers Inside Chips, Substrates, and Circuit Boards

"Electronic resin" is not one material. It is a family of electronic-grade polymers — epoxy molding compounds, laminate resins, build-up films, and photoresists — defined less by what they are made of than by the electrical, thermal, and dimensional numbers they must hit.

Read article
Previous
Page 2
Next