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HS Code |
750033 |
| Chemical Name | Glyoxylic Acid |
| Iupac Name | Oxooacetic acid |
| Cas Number | 298-12-4 |
| Molecular Formula | C2H2O3 |
| Molar Mass | 74.04 g/mol |
| Appearance | Colorless to yellowish liquid or crystalline solid |
| Melting Point | 97 °C (decomposes) |
| Density | 1.27 g/cm³ (20°C, 50% solution) |
| Solubility In Water | Miscible |
| Ph Solution | Approximately 1.5 (50% solution) |
| Odor | Pungent |
| Refractive Index | 1.379 (20°C, 40% solution) |
As an accredited Glyoxylic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Glyoxylic Acid is supplied in a 500 mL amber glass bottle with a secure screw cap, labeled with hazard warnings and specifications. |
| Shipping | Glyoxylic Acid should be shipped in tightly sealed containers made of compatible materials, typically in drums or bottles. It must be protected from heat, moisture, and incompatible substances such as strong oxidizers. The shipment should comply with local, national, and international regulations for hazardous chemicals, including appropriate labeling and documentation. |
| Storage | Glyoxylic acid should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers and bases. The storage area should be free from moisture and equipped with corrosion-resistant shelving. Proper labeling and secondary containment are recommended to prevent leaks or spills. Avoid temperature extremes and keep out of reach of unauthorized personnel. |
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Purity 40%: Glyoxylic Acid with 40% purity is used in cosmetic formulations, where it provides effective hair straightening with minimal scalp irritation. Molecular Weight 74.04 g/mol: Glyoxylic Acid with molecular weight 74.04 g/mol is used in pharmaceutical synthesis, where it enables precise control of reaction stoichiometry. Stability Temperature 25°C: Glyoxylic Acid stable at 25°C is used in textile processing, where it ensures consistent dye fixation without degradation. High Purity 99%: Glyoxylic Acid with 99% purity is used in aroma chemical manufacturing, where it yields high-grade intermediates with reduced by-product formation. pH Range 2-3: Glyoxylic Acid with pH range 2-3 is used in leather tanning, where it promotes efficient collagen crosslinking for enhanced leather durability. Melting Point 98°C: Glyoxylic Acid with a melting point of 98°C is used in specialty resin production, where it ensures uniform polymerization and thermal stability. Aqueous Solution 20%: Glyoxylic Acid 20% aqueous solution is used in water treatment, where it acts as an effective reducing agent for contaminant removal. Viscosity Low: Glyoxylic Acid with low viscosity is used in electroplating baths, where it imparts uniform metal deposition on substrate surfaces. Particle Size <10 μm: Glyoxylic Acid with particle size less than 10 μm is used in powder coating applications, where it achieves smooth surface finishes and even dispersion. Assay ≥50%: Glyoxylic Acid with assay of 50% or higher is used in agrochemical synthesis, where it allows high-yield formation of active pesticide intermediates. |
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Glyoxylic acid, with its simple formula C2H2O3, might not catch your eye at first glance. In practice, this substance deserves more attention than it gets. In my own experience working with ingredients for both industrial and cosmetic use, I see glyoxylic acid show up when reliability and flexibility matter most. Its defining trait is the aldehyde and carboxylic acid groups packed into one molecule, which means it brings a unique mix of reactivity and selectivity to a range of processes.
Several models circulate the market—most typically a 50% aqueous solution suits daily application needs. This concentration provides balance: strong enough to drive reactions, manageable enough for safe handling. Specific gravity, pH levels, appearance, and purity grades can vary from brand to brand, but the fundamental advantages of glyoxylic acid stay much the same.
People frequently talk about glyoxylic acid in the context of hair products or as a specialty chemical for different industries. From my time in the beauty sector, it’s clear why this acid gets used as a formaldehyde-free alternative for hair straightening systems. Unlike more aggressive substances, glyoxylic acid helps break and reform bonds in hair fibers, smoothing out curls but without releasing the same unsafe fumes that formaldehyde-based products do. Stylists and customers often breathe easier—literally and figuratively—when switching to products formulated around this acid.
Industrial chemists reach for glyoxylic acid during the synthesis of aromatic compounds, antibiotics, and flavor agents. You also find it acting as an intermediate, sometimes as a reducing agent and at other times enabling condensation reactions. In my laboratory experience, glyoxylic acid shows impressive versatility—its reactions don’t demand extreme temperatures or pH swings, which saves resources and reduces environmental impact. Plenty of chemical plants chase this kind of green chemistry.
Even in water treatment, glyoxylic acid lends a hand, controlling scale and improving process water clarity. Paper production, textiles, electronics, agrochemicals—its footprint stretches across the modern world.
If you line up glyoxylic acid next to acetic acid, formic acid, or glycolic acid, some differences immediately stand out. Structural diversity, reactivity, and byproducts make a real difference depending on the job. In personal care, glycolic acid grabs headlines for exfoliation, but its chemical behavior can go too far, sometimes causing skin irritation. Glyoxylic acid, by comparison, tends to produce gentler, more manageable results. Hair stays smooth and soft to the touch, rather than brittle or over-processed.
Looking at industrial synthesis, formic acid often comes up as a cleaner, but its smaller molecular size limits its application in advanced chemical pathways. In my own testing, glyoxylic acid’s extra carbon and dual functional groups allow for more fine-grained control during amination, acylation, or even as an intermediate in the creation of vanillin or atenolol. Both speed and yield improve, and side reactions are easier to predict and control. Less waste usually means lower costs and smaller environmental footprints, advantages still tough to find in legacy products.
Cost and stability also figure into the conversation. Glyoxylic acid, especially in a buffered solution, resists rapid degradation. By contrast, formic acid and similar reagents sometimes require costly stabilizers or extra safety measures during storage. Product shelf life counts for a lot in commercial settings. Nobody likes surprises showing up in critical inventory.
In textile dyeing, the difference between glyoxylic acid and other acids like oxalic or citric turns up in the brightness and persistence of colors. Dyes adhere better and finished fabrics look richer. Getting a precise shade matters, and sometimes a smaller tweak in acidity makes all the difference down the line. Experimenting with glyoxylic acid, I’ve noticed dye baths tend to run more consistent batch after batch. Quality assurance teams see fewer rejected lots—or at least, that's been my experience on the plant floor.
Working with any acid brings up questions of safety and stewardship. Handling glyoxylic acid with basic precautions—gloves, goggles, ventilation—prevents most problems. This acid doesn't off-gas irritating fumes in normal conditions, which makes large-scale application in enclosed spaces more comfortable for workers.
One lesson I learned early is that environmental fate matters more than the immediate product result. Many acids break down poorly in wastewater or generate byproducts that strain municipal systems. Glyoxylic acid, by contrast, tends to decompose into simpler compounds, mostly carbon dioxide and water. This trait made a real difference for one textile client of mine, who faced tightening regulations on effluent quality. With glyoxylic acid, their discharge met standards faster and with less investment in complex filtration or neutralization steps.
International agencies continue evaluating the eco-profiles of chemicals in everyday use. Glyoxylic acid earns consistently favorable reviews for low toxicity to fish and aquatic life at the concentrations used in industry, backed up by peer-reviewed research. For many manufacturers committed to green chemistry goals, these facts tip the decision in favor of glyoxylic acid versus cheaper but harsher alternatives.
As with any chemical, supply chains and import/export rules shape how easy it is to get and use glyoxylic acid. Over the past decade, governments have toughened reporting and labeling requirements, focusing on overall worker safety and proper storage. Most producers now provide detailed sheets tracking everything from suggested personal protective equipment to permissible exposure limits.
In my professional experience, staying a step ahead of these regulations saves time and costs later. Facilities running on lean staff and tight deadlines can depend on glyoxylic acid without fear of surprise compliance failures or audits. Clean records and swift throughput keep businesses competitive. As more regions push for transparency, having a chemical that meets the latest standards—without constant reformulation—remains a practical advantage.
Hair salons, for example, once faced tough choices when regulators flagged older straightening treatments for unsafe fumes or residue. Products built around glyoxylic acid, already falling within most emission limits, dodged disruptive bans and recalls. That sort of predictability becomes a selling point for brands and formulators aiming for long-lasting customer trust.
Part of what excites me about glyoxylic acid is the way its uses evolve. Ten years ago, its main audience was chemistry labs and specialty producers. Today, it's quietly embedded in greener haircare, improved flavor synthesis, and better-tolerated pharmaceuticals. Research teams keep exploring how to coax new behavior out of this small molecule.
For instance, food scientists now look at glyoxylic acid as a tool for synthesizing vanillin, the main flavor component in vanilla, from more sustainable sources. The shift reduces pressure on vanilla bean harvests and creates a more reliable supply chain. Since glyoxylic acid gaps the bridge between aldehydes and carboxylic acids, it expands the palette of starting materials, cutting costs and stabilizing flavor quality for large-scale producers.
On the biomedical front, drug developers hunt for intermediates that simplify the steps needed to synthesize key compounds. Glyoxylic acid’s reactivity under mild conditions reduces the need for harsh reagents. That trait lowers both the risk to workers and the overall environmental impact—a growing concern for firms in tightly regulated markets.
Smaller startup companies, meanwhile, use glyoxylic acid in niche electronics cleaning formulations or as a base for biodegradable polymers. Bringing new concepts from the lab to the market can take years, yet having a robust, familiar reagent like glyoxylic acid reduces technical risks for first-time entrepreneurs.
No product solves every problem. One challenge facing glyoxylic acid involves managing its inherent reactivity. In the hands of experienced chemists, this reactivity creates opportunities. Used sloppily, it can overreact and complicate cleanup. As I’ve seen more than a few times in rush jobs or poorly ventilated workshops, missing out on basic safety habits magnifies risk.
Another hurdle is the cost structure. Quality glyoxylic acid, particularly in high-purity grades, runs a bit higher than basic acids used in similar jobs. Bigger producers often offset this extra cost by running fewer batches or cutting down on costly neutralization. For small businesses, margin pressure becomes a real consideration. Building these costs into budgets helps with planning, but not every startup can absorb the difference from day one.
Transportation also presents its own set of headaches. As a water-based solution, glyoxylic acid weighs more to ship and calls for secure packaging to prevent leaks and spills. Logistics teams do their best to coordinate just-in-time deliveries, but supply disruptions—whether from weather, factory downtime, or regulation—can cause headaches for downstream users. Even so, reserve inventory levels, strong supplier relationships, and regular training on spill cleanup reduce the chances of major losses.
Seeing both sides of the coin, I appreciate what glyoxylic acid brings to this fast-changing world. Its balance of strength and restraint makes it as useful for a haircare startup as for a multinational pharmaceutical company. Years ago, I would have expected a specialty compound like this to remain walled off in high-end labs. Reality looks different—market pressure for safer, greener, and predictable products pulled this acid firmly into mainstream use.
For anyone choosing the right tool for their process, glyoxylic acid deserves a fresh look. It pulls its weight in reducing environmental load, simplifies compliance, and can streamline batch work across industries. Companies benefit from tracking both the direct costs and the indirect gains—fewer regulatory headaches, less dangerous off-gassing, longer shelf life, and improved worker safety.
The lessons I’ve picked up show that adaptation always beats inertia. If facility managers, process chemists, or formulators lean into what glyoxylic acid offers, they unlock new options. Sometimes the payoff is large, sometimes incremental—but always tangible in smoother operations or improved confidence in safety and sustainability.
With new research pointing toward even cleaner production routes for glyoxylic acid, the outlook only improves from here. Whether it’s synthesis from renewable resources, closed-loop recycling of process streams, or more energy-efficient purification, the ingredient continues to shed its reputation as an old-school commodity chemical. My bets are on more companies adopting glyoxylic acid for mainstream uses that demand transparency, reliability, and reduced environmental impact.
On the end-user side, education remains crucial. Workers, stylists, factory techs, and even research students need clear, honest information—not just about what glyoxylic acid can do, but how to use it safely and recognize its unique limits. Practical training bands together with better-designed packaging, safer dispensing methods, and rigorous labeling routines to build robust, transparent supply chains.
Some regions still wrestle with inconsistent access to certified raw materials. That gap means investment in local production, ethical sourcing, and partners who prioritize traceability will pay off. As glyoxylic acid earns trust across more industries, producers willing to share technical know-how help set standards for safe, reliable, and sustainable progress. Partnerships between manufacturers, regulators, and end users create feedback loops that improve products and service with every passing year.
To those outside chemical or industrial circles, glyoxylic acid might seem an obscure ingredient. Yet, its impact is hard to overstate. From smoother, safer hair to purer pharmaceuticals and more vibrant fabrics, it finds its way into places that affect daily lives. Choosing the best material for the job still means weighing cost, safety, and performance—but with glyoxylic acid, more of those boxes get checked than with many longtime alternatives.
From my own journey working alongside engineers, stylists, and plant operators, what stands out most about glyoxylic acid is adaptability. As needs evolve, this ingredient consistently finds new roles. When well-handled, it helps users avoid common pitfalls tied to harsher, less forgiving chemicals. In an era when trust, transparency, and real-world results matter more than ever, glyoxylic acid proves that sometimes the best innovations come in humble packages.
Looking ahead, investing in the knowledge and infrastructure to use glyoxylic acid wisely pays off. Whether you run a salon, manage a plant floor, or develop next-generation flavors and fragrances, paying attention to the new capabilities this ingredient unlocks can tip the scales toward safer, smarter, and more sustainable operations. The momentum is unmistakable. By approaching glyoxylic acid not as just another specialty chemical, but as a tool for progress, both veteran and up-and-coming businesses can seize opportunities that stretch across industries and around the world.