SUPERFLOC

SUPERFLOC is high-molecular-weight, water-soluble polymers carrying negatively charged functional groups such as carboxylate, sulfonate, or phosphate, which dissociate in water and enable strong interactions with positively charged particles and metal ions.
Their electrostatic activity makes them highly effective as flocculants, dispersants, and stabilizers in water and wastewater treatment, paper manufacturing, mineral processing, and oilfield operations.
Key performance factors such as molecular weight, charge density, and solubility can be tailored during synthesis, allowing optimization for diverse applications ranging from sludge dewatering and sediment control to enhanced oil recovery and industrial wastewater clarification.

CAS Numbers: 9003-05-8
EC Number: 232-712-4
Molecular Formula: (C3H3NaO2)n
Molecular Weight: 100,000 – >10,000,000 g/mol

Synonyms: Anionic Polymer, Anionic Flocculant, Anionic PAM, Anionic Polyacrylamide, APAM, Poly(sodium acrylate), Sodium Polyacrylate, Poly(acrylamide-co-acrylic acid), Acrylic Acid–Acrylamide Copolymer, Polyacrylic Acid, Sodium Salt, Sodium Acrylate Polymer, Poly(2-propenoic acid, sodium salt), Acrylic Acid Polymer, Sodium Salt, Poly(styrene sulfonate), sodium salt, Sodium Polystyrene Sulfonate, Poly(4-styrenesulfonic acid), sodium salt, Sodium Salt of Polystyrene Sulfonic Acid, Poly(sodium vinyl sulfonate), Sodium Polyvinyl Sulfonate, Poly(methacrylic acid, sodium salt), Sodium Poly(methacrylate), Carboxylated Polyacrylamide, Hydrolyzed Polyacrylamide, Partially Hydrolyzed Polyacrylamide (PHPA), Polyacrylamide Sodium Salt, Acrylic Acid Polymer, Acrylamide–Acrylic Acid Sodium Salt Copolymer, Poly(sodium maleate), Sodium Poly(maleic acid), Poly(maleic acid-co-acrylic acid), sodium salt, Anionic Polyelectrolytic Polymer, Carboxylate Polymer, Sulfonated Polyelectrolyte, Poly(vinyl phosphonate), sodium salt, Sodium Polyphosphate Polymer (modified type), Polycarboxylate Polymer, Carboxymethyl Cellulose Sodium Salt (CMC, as a natural anionic polyelectrolyte), Sulfonated Starch Derivative, Modified Starch Polyelectrolyte, Xanthan Gum (used as natural anionic polyelectrolyte), Sodium Alginate, Alginic Acid, Sodium Salt, Polygalacturonic Acid (Pectin), Sodium Lignosulfonate, Lignosulfonic Acid, Sodium Salt, Sodium Polymethacrylate, Sodium Salt of Carboxylated Polymer, Acrylic Copolymer, Sodium Salt, Polyelectrolyte Anionic Grade, Flopam™ / Superfloc™ (commercial trade names for anionic polyelectrolytes)

SUPERFLOC is high-molecular-weight, water-soluble polymers that carry negatively charged functional groups along their backbone, such as carboxylate, sulfonate, or phosphate groups.
When dissolved in water, these groups dissociate and impart strong anionic charges to the polymer chains, enabling them to interact with positively charged particles, metal ions, and other cationic species.

This electrostatic activity makes SUPERFLOC highly effective as flocculants, dispersants, and stabilizers in applications like water and wastewater treatment, paper manufacturing, mineral processing, and textiles.
Their ability to bridge suspended particles and form large, easily settleable aggregates helps improve clarification, dewatering, and solid–liquid separation processes.
Additionally, the specific charge density, molecular weight, and structure of SUPERFLOC can be tailored to optimize performance for different industrial systems.

Water-soluble polymers are found in a very broad range of industrial applications. 
An important class of these is acrylamide-based polymers which bear negative charges along the polymer chain and are called SUPERFLOC. 

SUPERFLOC is widely used as flocculants, rheology control agents, and adhesives. 

SUPERFLOC is employed especially in oil field operations as viscosity control agents for enhanced oil recovery and to a lesser degree in engineering fluids used for lubrication, for effluent reclaiming, and for opening oil passage channels in oil-bearing rock. 
Paper manufacture, mining, and water treatment processes also benefit from the use of acrylamide-based polymers to flocculate solids in aqueous dispersions. 

SUPERFLOC used for construction site erosion and sediment control (ESC) applications are a group of high molecular weight, water soluble molecules formed by polymerization of the monomer acrylamide.
SUPERFLOC is produced when acrylamide is polymerized with an anionic comonomer. 

SUPERFLOC have been used for decades to facilitate solid liquid separations in wastewater and drinking water treatment, the pulp and paper industry, aquaculture, and many other industrial processes.
Although polymer-based water clarification is a technique that is well established in industrial applications, treatment of construction runoff is a newer and less established use of this technology. 

Today there are several SUPERFLOC-based products marketed for use in construction site sediment management. 
These products can be applied for erosion control, clarification of sediment laden runoff, and de-mucking of wet sediment during pond cleanouts. 
They are designed to be used in conjunction with other best management practices, as part of a multi-barrier approach, to minimize soil loss and improve settling of suspended sediments. 

SUPERFLOC is a class of high-molecular-weight polymers characterized by the presence of negatively charged functional groups distributed along their polymeric backbone, typically in the form of carboxylate (–COO⁻), sulfonate (–SO₃⁻), or phosphate (–PO₄²⁻) moieties.
These groups readily dissociate in aqueous solutions, imparting a strong net negative charge to the macromolecule.

As a result, SUPERFLOC exhibit unique physicochemical properties such as high water solubility, the ability to modify surface charges, and a strong affinity for positively charged surfaces, multivalent metal ions, and cationic polymers.
Due to their polyelectrolytic nature, they play a critical role in colloidal destabilization and flocculation processes: when introduced into suspensions containing fine solid particles, they adsorb onto particle surfaces and create interparticle bridging, leading to the formation of larger flocs that can be easily separated from the liquid phase.

This property makes them widely applicable in water and wastewater treatment, where they facilitate sedimentation, sludge dewatering, and clarification.
Beyond environmental engineering, SUPERFLOC is used in industries such as paper and pulp (for retention and drainage improvement), textiles (as sizing and finishing agents), mineral processing (for separation and recovery of ores), and oil and gas (as viscosity modifiers and friction reducers in drilling fluids).

Their effectiveness is influenced by key parameters such as molecular weight, charge density, and degree of hydrolysis, which can be carefully tailored to meet the requirements of specific applications.
Additionally, they offer advantages such as reduced chemical dosage requirements, improved process efficiency, and compatibility with both natural and synthetic treatment systems.
Recent advancements have also focused on the development of environmentally friendly, biodegradable SUPERFLOC derived from natural polymers like starch, cellulose, and chitosan, expanding their potential in sustainable water management and green industrial processes.

Market Overview of SUPERFLOC:
The global market for SUPERFLOC is experiencing steady growth, driven primarily by increasing demand in water and wastewater treatment, where these polymers are indispensable as flocculants, coagulant aids, and sludge dewatering agents.
Rapid urbanization, population growth, and stricter environmental regulations on industrial effluents are compelling municipalities and industries to adopt more effective treatment solutions, with SUPERFLOC providing high efficiency at relatively low dosages.

Beyond environmental applications, their use extends to the pulp and paper industry for retention, drainage, and pitch control, the mining sector for mineral separation and clarification processes, the oil and gas industry as viscosity modifiers and friction reducers in drilling and enhanced oil recovery, and the textile sector as finishing and sizing agents.
Market reports estimate the global polyelectrolyte market to be worth between USD 2–4.5 billion in 2023–2024, with projections reaching USD 4–7 billion by 2031–2033, reflecting a compound annual growth rate (CAGR) of about 4–6%.
SUPERFLOC represent a significant share of this market due to their superior performance in systems requiring strong electrostatic interactions with positively charged particles and contaminants.

Key growth regions include Asia-Pacific, where industrial expansion and large-scale infrastructure projects in countries such as China and India are fueling consumption, and North America, which leads in revenue due to its advanced water treatment infrastructure and widespread use in oilfield operations.
Europe is also a strong market, influenced by stringent environmental policies and investments in sustainable water technologies.

However, the industry faces challenges such as raw material price fluctuations for acrylamide and acrylic acid, and competition from alternative treatment methods like membrane filtration and advanced oxidation.
In response, major chemical companies including SNF Floerger, BASF SE, Kemira, Solenis, and Dow are investing in R&D and expanding capacity, with a strong emphasis on developing biodegradable and bio-based SUPERFLOC that align with global sustainability trends.
As industries and municipalities continue to prioritize efficiency, cost reduction, and environmental compliance, the demand for SUPERFLOC is expected to remain on an upward trajectory, positioning them as a cornerstone material in both conventional and emerging water treatment and industrial processes.

Applications of SUPERFLOC:
As a flocculating agent, mainly used in industrial solid-liquid separation process, including settlement, to clarify, concentrate and sludge dewatering processes. 

Applications for all the major sectors are: Urban Sewage Treatment, Paper, Food Processing, Petrochemical, Metallurgical Processing, Dyeing and the Sugar and all kinds of industrial wastewater treatment.

In the paper industry, SUPERFLOC can be used as dry strength agents, retention agent, filter aid. 
SUPERFLOC can be greatly improved as paper quality, enhance the physical strength of paper and reduce the loss of fiber, can also be used in the treatment of white water at the same time, in the deinking process can play a significant flocculation.

SUPERFLOC can be used in coal washing as waste water clarifier in the mining industry.

Oil field profile controlling and water- plugging agent, matched with CMC and a certain amount of chemical adhesive added. 
SUPERFLOC can be used as oil field profile controlling and water-plugging agent. 

SUPERFLOC can also be used mud additive for EOR (Enhanced Oil Recovery) process to improve production of oil gas drilling chemical. 
In oil field, SUPERFLOC is a kind of mud additive. 
SUPERFLOC is used to increase the viscosity of water and improve the effectiveness of the water flooding process.

SUPERFLOC is a kind of polyacrylamide (PAM) and shows electronegative which contains functional groups of sulfonic acid, phosphoric acid or carboxylic acid. 
Due to more charge, the molecular chain of polymer can be more stretching in the water which will increase the capacity of adsorption and bridge for suspended particles removal. 

The mainly interaction between APAM and suspended particles is static electricity, hydrogen bonding or covalent bond. 
SUPERFLOC with high molecular weight and good solubility property can be an important kind of flocculants. 

And SUPERFLOC has been widely used in water treatment because of good flocculation performance. 
Generally, molecular weight of polysaccharide polymer is determined by intrinsic viscosity. 

Accordingly, how to improve the intrinsic viscosity and solubility property of APAM is the most critical point in the polymerization.
Based on comprehensive literature survey to the preparation technology and application progress of SUPERFLOC, SUPERFLOC can be found that a detailed analysis and review of past academic research progress could be valuable with the rapid development of synthesis technology. 
Homopolymerization posthydrolysis process, homopolymerization cohydrolysis process, copolymerization approach, inverse emulsion polymerization, precipitation polymerization and radiation polymerization are the main six kinds of synthesis technologies of APAM.

Treatment of service water.
Clarification and filtration of river water and industrial water.
Condensation and dehydration of sludge from industrial water treatment.

Other Applications:

In Chemical:
Sedimentation and condensation of magnesium hydroxide in manufacturing process of magnesium clinker (Mgo).
Clarification of phosphoric acid solution.
Treatment of sewage from red oxide manufacture.

In Mining:
Sedimentation of slimes of copper, zinc, sulfides ores.
Filtration of slimes and coal powder.
Treatment of sewage from mining process.
Treatment of coal washing.

In Oil:
Enhanced oil recovery.

In Creamic:
Condensation, sedimentation of slurry in wet type cement manufacture.

In Waste water treatment:

Pulp and paper:
Recovery and clarification of white water, steel and metal
Treatment of sewage containing blast furnace dust.

Treatment of sewage from metal plating.
Treatment of sewage from acid cleaning of metals.

In Textile:
Treatment of sewage from wool washing.
Treatment of sewage from dyeing.

Usage Areas of SUPERFLOC:
In chemical wastewater treatment plants, SUPERFLOC is applied by making a solution with water depending on the type of waste. 

SUPERFLOC is a type of polymer used in dewatering sludge arising from biological treatment processes. 
SUPERFLOC is used in drinking water and wastewater treatment, Paper Industry, Petroleum Industry, Mining, Agriculture, Textile, Cosmetics industry.

Anionic Poly Electrolyte is specially designed for improvising filtration and purification processes in sugar processing. 
This organic based copolymer coagulant is effective in complex systems that coagulate solids and immediately form flocs. 
SUPERFLOC is processed more carefully to make SUPERFLOC compatible with any pH range.

SUPERFLOC Powder is a medium anionic charged powder polyelectrolyte to be used as a thickener in the direct filtration process to precipitate inorganic suspended solids, waste water.

Anionic flocculants:
SUPERFLOC is used, among other things, for water clarification and process water recycling. 
SUPERFLOC is easier to polymerize to very high molecular weights. 

SUPERFLOC presents high polymer electrolyte characteristics in neutral and alkaline mediums. 
With good flocculation, SUPERFLOC can reduce the frictional resistance between the liquid and be widely used in mining industries and water treatment etc.

Other Uses:

Some of the main areas of a construction site that can benefit from stabilization with SUPERFLOC include:
Soil stockpiles,
Low traffic sloped areas,
Stripped areas left inactive for extended periods of time,
Cut-off swales/ditches,
Any other stripped areas of the site where dust control is needed.

The following guidelines should be applied for any use of SUPERFLOC as an erosion control on construction sites.

Granular SUPERFLOC applied to a soil surface for erosion control should be applied at least 15 metres away from any watercourse, wetland, well, etc. or other natural water feature. 
SUPERFLOC should never be applied directly to natural features (e.g. woodlots, wetlands, streams).

When not used in combination with other ground covers, SUPERFLOC should only be applied to protect against erosion in areas receiving nonconcentrated sheet flows.

Prior to Polyacrylamide application, rills and/or gullies should be filled in and/or the surface should be prepped according to the manufacturer’s specifications.

Application of SUPERFLOC with seed (through hydroseeding or a similar method), or some sort of cover, is preferable to the use of the polymer alone on bare soil. 
The roots will help to anchor the soil in place and the Polyacrylamide helps to stabilize soil early on before the seed has germinated.

Accepted application methods include (i) broadcast of granular Polyacrylamide, by hand or with a seed/fertilizer spreader, (ii) application of Polyacrylamide solution with a construction site watering vehicle, and (iii) addition to hydroseeding mixture, followed by normal hydroseed application.

Benefits of SUPERFLOC:
SUPERFLOC offer a wide range of benefits that make them indispensable across water treatment and industrial applications.
Their most significant advantage lies in their exceptional flocculation and coagulation efficiency, as they can effectively neutralize and destabilize suspended solids, colloids, and organic matter in water, leading to the formation of large, settleable flocs and thus improving sedimentation, clarification, and filtration processes.

This translates into cleaner effluents, enhanced compliance with environmental discharge regulations, and reduced operational costs for municipalities and industries.
Another key benefit is their versatility: by tailoring the molecular weight and charge density, SUPERFLOC can be optimized for specific applications, ranging from municipal wastewater treatment plants to complex industrial systems such as pulp and paper mills, mining operations, oil recovery processes, and textile finishing.

Their ability to reduce sludge volume not only lowers handling and disposal costs but also minimizes the environmental footprint of treatment facilities.
In addition, SUPERFLOC is compatible with a wide range of water chemistries, making them effective in treating hard water, oily wastewater, and effluents with high metal content.

They also improve process efficiency in industries—for instance, enhancing fiber retention and drainage in papermaking, increasing mineral recovery in mining, and acting as viscosity modifiers in oilfield operations.
From a sustainability perspective, their use often reduces the need for high doses of inorganic coagulants such as alum or ferric salts, which can generate large amounts of chemical sludge; this not only reduces chemical consumption but also lessens secondary environmental impacts.

Furthermore, ongoing innovation has led to the development of biodegradable and natural-based SUPERFLOC, which combine high performance with eco-friendly characteristics, making them an increasingly attractive choice in industries seeking greener alternatives.
Altogether, the benefits of SUPERFLOC center on efficiency, adaptability, cost-effectiveness, and environmental sustainability, reinforcing their role as essential materials for modern water management and industrial processing.

Manufacturing of SUPERFLOC:
SUPERFLOC is made by the free-radical polymerization of acrylamide and SUPERFLOC derivatives via bulk, solution, precipitation, suspension, emulsion, and copolymerization techniques. 
Among these, solution polymerization is a preferred technique because of difficulty with temperature and agitation control in bulk polymerization and the cost of surfactants and solvents for suspension, emulsion, and precipitation polymerization. 

The anionic polymers may interact with particles in aqueous dispersions in several ways that result in the stability or instability of the dispersions. 
The particles in solid-liquid phases can be destabilized through three main mechanisms which promote flocculation and cause destabilization. 

These mechanisms are polymer bridging, charge neutralization, and polymer adsorption. 
The particles in solid-liquid phases can be stabilized by the anionic polymers through both electrostatic and steric repulsive forces.

Synthesis of SUPERFLOC:
The synthesis of SUPERFLOC typically involves polymerization of vinyl-type monomers containing anionic functional groups or their precursors, most commonly through free radical polymerization in aqueous or inverse emulsion systems. 
A widely used route is the polymerization of acrylamide followed by partial hydrolysis of the amide groups, producing poly(acrylamide-co-acrylic acid) with carboxylate groups that provide the negative charge.

Alternatively, direct copolymerization of acrylamide with sodium acrylate, sodium styrene sulfonate, or other sulfonated or phosphonated monomers yields strongly anionic copolymers with adjustable charge density.
The polymerization process can be conducted in solution, emulsion, or dispersion form, with initiators such as ammonium persulfate, azo compounds, or redox systems ensuring chain propagation.

The molecular weight of the resulting polymer—often ranging from several hundred thousand to over ten million Daltons—can be carefully tuned by controlling initiator concentration, reaction conditions, and the presence of chain-transfer agents.
Advanced methods, such as controlled radical polymerization (e.g., RAFT, ATRP), are increasingly used to achieve precise molecular weight distribution, block copolymer architectures, and specific functional group placement.

Industrially, inverse emulsion polymerization is common because it produces high-molecular-weight polymers in latex form, which are easier to handle and dissolve rapidly in water at the point of application.
Post-polymerization modifications can also be applied, such as sulfonation or phosphorylation of existing backbones, to introduce additional anionic charges and enhance performance in specific environments.

To address sustainability concerns, research has expanded into synthesizing SUPERFLOC from renewable natural polymers such as cellulose, starch, and chitosan, which can be chemically modified with carboxymethyl, sulfonate, or phosphate groups to impart polyelectrolytic properties.
The overall synthesis strategy is thus highly versatile, allowing for the design of SUPERFLOC with tailored charge density, molecular architecture, and solubility characteristics that meet the diverse demands of water treatment, papermaking, mining, and oilfield applications.

History of SUPERFLOC:
The history of SUPERFLOC is closely tied to the broader development of synthetic polymers in the early 20th century and the growing industrial need for effective water treatment and process aids.
Their origins can be traced back to the 1930s and 1940s, when fundamental advances in vinyl polymerization led to the creation of synthetic polymers such as polyacrylamide, which later became the backbone for many commercial SUPERFLOC.

In the 1950s, large-scale industrialization, urban expansion, and the rise of paper and textile industries created a strong demand for chemical additives that could improve efficiency, retention, and water clarification.
Early SUPERFLOC, derived from partially hydrolyzed polyacrylamide and copolymers of acrylamide with acrylic acid, were introduced as flocculants and dispersants, quickly gaining attention for their ability to replace or reduce traditional inorganic coagulants like alum and ferric salts.

By the 1960s and 1970s, with the introduction of environmental regulations in the United States and Europe addressing water pollution, the use of synthetic SUPERFLOC expanded dramatically in municipal wastewater treatment and industrial effluent control.
During this period, companies such as SNF Floerger, BASF, Kemira, and Dow began investing heavily in polymer research, scaling up production, and diversifying product lines to meet the specific needs of sectors like pulp and paper, oil and gas, and mining.

The 1980s and 1990s saw further refinement, with the development of high-molecular-weight, tailor-made polyelectrolytes produced via emulsion polymerization and the introduction of sulfonated and phosphonated variants for applications requiring stronger charge density and chemical stability.
In recent decades, with growing global concerns about sustainability and circular economies, research has increasingly turned toward biopolymer-based SUPERFLOC, such as carboxymethyl cellulose, sulfonated starch, and modified chitosan, which combine biodegradability with effective performance.
Today, SUPERFLOC have evolved from simple acrylamide derivatives to a highly diverse and technologically sophisticated class of materials, integral to modern water management, industrial processing, and environmental protection, reflecting nearly a century of scientific innovation and industrial adaptation.

Handling and Storage of SUPERFLOC:
SUPERFLOC should be handled in well-ventilated areas to prevent the accumulation of dust or vapors from drying powders or concentrated solutions.
Contact with skin, eyes, and clothing should be avoided, as these polymers can cause mild irritation upon prolonged exposure.

Use non-sparking tools and equipment, and practice good industrial hygiene, including washing hands after handling.
For storage, materials should be kept in tightly closed containers, in a cool, dry, and well-ventilated area away from strong oxidizing agents, acids, and sources of ignition.

Emulsion forms must be protected from freezing and prolonged exposure to heat, while dry powders should be kept away from moisture to avoid lumping and loss of performance.
Shelf life is typically 12–24 months under recommended conditions.

Stability and Reactivity of SUPERFLOC:
SUPERFLOC is chemically stable under normal storage and handling conditions.
They are non-volatile, non-flammable in aqueous solution, and not prone to hazardous polymerization.

However, exposure to high temperatures (>200 °C) may lead to decomposition, releasing carbon oxides, nitrogen oxides, or sulfur oxides depending on the functional groups present.
They may react with strong oxidizing agents (e.g., peroxides, chlorine) or strong acids, which can degrade the polymer backbone and reduce effectiveness.
Dry powders can present dust explosion hazards if dispersed in air in large quantities, though this risk is low due to their high molecular weight.

First Aid Measures of SUPERFLOC:

Inhalation:
Move the affected person to fresh air.
If irritation or respiratory distress occurs, seek medical attention.

Skin Contact:
Wash thoroughly with soap and water.
Remove contaminated clothing and wash before reuse.
If irritation persists, seek medical advice.

Eye Contact:
Rinse immediately with plenty of water for at least 15 minutes, holding eyelids apart.
Seek medical attention if redness, pain, or vision problems develop.

Ingestion:
Rinse mouth with water and drink water to dilute.
Do not induce vomiting.
Seek medical attention if large quantities are swallowed or if discomfort occurs.

Firefighting Measures of SUPERFLOC:
Although SUPERFLOC is generally non-flammable in aqueous solution, dry powder may burn if exposed to intense heat or flame.
In case of fire, suitable extinguishing media include water spray, foam, dry chemical, or carbon dioxide.

Firefighters should wear full protective equipment and self-contained breathing apparatus, as thermal decomposition products may include carbon monoxide, carbon dioxide, nitrogen oxides, and sulfur oxides.
Prevent contaminated firefighting water from entering drains, surface water, or soil.

Accidental Release Measures of SUPERFLOC:
For small spills, absorb liquid with inert material (e.g., sand, earth, diatomaceous earth), collect in suitable containers, and dispose of in accordance with local regulations.
For large spills, dike the area to prevent spreading and recover as much material as possible for reuse or disposal.

Spilled powders should be swept up carefully to avoid dust formation; vacuuming with HEPA filtration is preferred.
Avoid discharge into drains or surface water as concentrated solutions may cause slipperiness and increase biological oxygen demand (BOD) in aquatic systems.
Use personal protective equipment during cleanup, including gloves, safety glasses, and respiratory protection if dust levels are high.

Exposure Controls / Personal Protection of SUPERFLOC:

Engineering Controls:
Provide local exhaust ventilation where dust or mist may be generated.
Maintain general workplace ventilation.

Personal Protective Equipment (PPE):

Respiratory Protection:
Not usually required under normal use; use NIOSH-approved respirator if dust or aerosols are generated.

Skin Protection:
Wear chemical-resistant gloves (e.g., nitrile, neoprene) and protective clothing to minimize skin contact.

Eye Protection:
Use safety goggles or face shields to prevent eye exposure.

Hygiene Measures:
Wash hands, face, and exposed skin thoroughly after handling.
Do not eat, drink, or smoke while handling the material.

Identifiers of SUPERFLOC:
Chemical Name: SUPERFLOC
CAS Numbers: 9003-05-8
EC Number: 232-712-4
Molecular Formula: (C3H3NaO2)n
Molecular Weight: 100,000 – >10,000,000 g/mol
Appearance: White/off-white granular powder, beads, or milky emulsion
Odor: Odorless to faint characteristic polymer odor
Solubility: Readily soluble in water; insoluble in most organic solvents

Properties of SUPERFLOC:
Physical State: Solid (powder, granules, beads) or liquid (emulsion/solution)
Color: White to off-white
pH (1% solution): Typically 6 – 9
Viscosity: Forms viscous, shear-thinning solutions in water
Charge Type: Anionic (carboxylate, sulfonate, or phosphate groups)
Thermal Stability: Stable under normal conditions; decomposition above ~200 °C
Chemical Stability: Stable in water; incompatible with strong oxidizers and strong acids
Hygroscopicity: Absorbs moisture; may form lumps if not stored properly
Biodegradability: Synthetic grades slow to degrade; natural derivatives (e.g., CMC) biodegradable
Functional Behavior: Effective flocculant, dispersant, thickener, and stabilizer

Physical State: Solid (powder, beads, granules) or liquid (inverse emulsion/aqueous solution)
Color/Appearance: White to off-white; may appear milky in emulsions
Odor: Odorless to faint characteristic odor
pH (1% solution): Typically 6 – 9 (depending on formulation)
Molecular Weight: Very high, typically 100,000 – >10,000,000 g/mol
Charge Type: Strongly anionic due to carboxylate, sulfonate, or phosphate groups
Viscosity: Forms highly viscous, shear-thinning (non-Newtonian) solutions in water; viscosity increases with molecular weight and concentration
Solubility: Readily soluble in water; insoluble in most organic solvents
Hygroscopicity: Absorbs atmospheric moisture; dry powders may cake or form lumps if exposed
Density (bulk, powder): ~0.7 – 0.9 g/cm³ (varies by form)