TDS
Technical Data Sheet
Product specifications and performance data for formulation review.
Cellulose Ether Excellence — Trusted by 1000+ Enterprises Globally Get Free Sample
LANDERCOLL HEC cellulose ether helps surface cleaner manufacturers achieve reliable viscosity control, stable texture, spray and wipe application balance, and long-term formulation consistency across multipurpose, kitchen, bathroom, spray, thickened, gel, and concentrate formats.
From low-viscosity spray cleaners to thickened liquids and premium gel surface cleaners — the right HEC grade delivers predictable rheology, controlled flow, and consistent consumer experience for overseas manufacturers and chemical buyers.
Spray · Thickened · Gel · Kitchen · Bathroom · Concentrate · Multipurpose
Quick Answer
Quick AnswerHydroxyethyl Cellulose (HEC) is the primary cellulose ether used in surface cleaner formulations. It provides viscosity control, rheology adjustment, controlled flow, suspension stability, spray and wipe application balance, and storage stability across spray, thickened liquid, gel, and concentrate surface cleaner systems. CMC and HPMC may be considered in selected specialty or customized surface cleaning systems after compatibility testing.
Key performance, compatibility, and supply reference for overseas surface cleaner manufacturers and chemical buyers.
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Surface cleaner is one of the most widely used household and institutional cleaning product categories globally. It covers products designed to remove dust, grease, fingerprints, soap residue, light stains, and everyday soils from kitchen counters, bathroom surfaces, tiles, appliances, floors, tables, and other washable surfaces.
Viscosity and rheology are central to surface cleaner performance across all formats. Cellulose ether — primarily HEC (Hydroxyethyl Cellulose) — provides a reliable thickening and rheology system for viscosity control, stable texture, suspension support, and consistent formulation performance.
Without effective thickening, surface cleaners face critical challenges: inconsistent spray patterns, watery appearance, gel running too quickly on vertical surfaces, opacifier settling, batch-to-batch viscosity variation, and reduced surface contact time affecting cleaning effectiveness.
LANDERCOLL provides HEC and selected cellulose ether grades for surface cleaner manufacturers who need dependable viscosity control, stable texture, suspension support, and consistent formulation performance across different cleaner types and production environments.
HEC builds a structured viscosity and rheology network that allows surface cleaner to maintain appropriate viscosity, flow smoothly during application, cling to surfaces, maintain stable body during storage, and deliver consistent texture across production batches.
LANDERCOLL offers HEC as the primary cellulose ether recommendation for surface cleaner applications, with CMC and HPMC available for selected specialty systems.
Primary · Non-Ionic · HEC
Non-ionic cellulose ether for viscosity control, texture improvement, suspension support, and stable rheology.
HEC is a non-ionic, water-soluble cellulose ether widely used in water-based surface cleaner formulations. It builds viscosity in the water phase, helps create stable product body, supports controlled flow during application, and maintains consistent texture during storage and use. Suitable for thickened surface cleaners, multipurpose cleaners, bathroom cleaners, kitchen cleaners, and selected spray cleaner systems.
Anionic · CMC · Selected Systems
Carboxymethyl Cellulose for selected suspension support, product body, and formulation consistency needs.
CMC may be considered in selected surface cleaner formulations where suspension support, viscosity contribution, or cost-performance balance is a priority. Important: CMC is an anionic polymer; compatibility with acids, salts, high-electrolyte systems, and other active ingredients must be confirmed through testing before use.
Specialty · HPMC · Gel Systems
Hydroxypropyl Methylcellulose for specialty thickening, controlled rheology, and customized cleaner texture.
HPMC may be considered in specialty surface cleaners, gel cleaners, or customized household cleaning systems where specific rheology behavior, film-forming properties, or customized gel texture is required. Final performance must be confirmed through formulation testing, as surfactant type, solvent system, electrolyte level, pH, and production method can all influence HPMC performance.
Surface cleaner formulations vary significantly by product type, target surface, and cleaning performance requirement. The table below provides a general reference for common components.
| Component | Function in Surface Cleaner |
|---|---|
| Water | Main solvent and carrier phase |
| Surfactants | Provide wetting, cleaning, grease removal, and soil removal |
| Solvents | Support grease removal and quick-drying behavior in selected systems |
| Cellulose Ether (HEC / CMC / HPMC) | Improve viscosity, rheology, texture, suspension, and stability |
| Builders / Chelating Agents | Support cleaning efficiency and water hardness control |
| pH Adjusters | Adjust cleaning profile and formulation stability |
| Preservatives | Protect water-based formulations from microbial growth |
| Fragrance | Provide product scent |
| Colorants / Opacifiers | Improve appearance in selected products |
| Antibacterial Ingredients | Used in selected sanitizing or antibacterial surface cleaners |
| Surface Cleaner Type | Recommended Product | Main Requirements |
|---|---|---|
| Multipurpose Surface Cleaner | HEC / selected cellulose ether | Viscosity, flow control, formulation stability |
| Kitchen Surface Cleaner | HEC | Degreasing compatibility, texture, application control |
| Bathroom Surface Cleaner | HEC / selected cellulose ether | Cling, viscosity, stable spreading on ceramic |
| Spray Surface Cleaner | Low viscosity HEC / selected grade | Sprayability, stable viscosity, low residue feel |
| Thickened Surface Cleaner | HEC | Product body, controlled flow, surface contact time |
| Gel Surface Cleaner | HEC / selected HPMC | Gel texture, cling, stable appearance |
| Concentrated Surface Cleaner | HEC / selected cellulose ether | High-active compatibility, viscosity balance |
| Opaque or Particle Cleaner | HEC / selected CMC | Suspension support, stable opaque appearance |
These ranges are starting references only. Final dosage must be confirmed through viscosity testing, spray testing, wiping evaluation, surface residue assessment, compatibility testing, storage stability evaluation, and consumer-use trials.
| Surface Cleaner Application | Typical Reference Dosage |
|---|---|
| Multipurpose Surface Cleaner | 0.1% – 0.6% |
| Kitchen Surface Cleaner | 0.1% – 0.6% |
| Bathroom Surface Cleaner | 0.2% – 0.8% |
| Spray Surface Cleaner | 0.05% – 0.3% |
| Thickened Surface Cleaner | 0.2% – 0.9% |
| Gel Surface Cleaner | 0.3% – 1.2% |
| Concentrated Surface Cleaner | 0.2% – 0.8% |
| Opaque or Particle Cleaner | 0.2% – 0.8% |
Cellulose ether influences viscosity development, rheology adjustment, controlled flow, suspension stability, spray and wipe application balance, and long-term storage performance in water-based surface cleaner systems.
HEC helps adjust surface cleaner viscosity across a wide range — from low-viscosity spray formulations to thickened liquids and gel formats. Proper viscosity control ensures the product looks and performs appropriately for its intended application method and consumer expectations.
Cellulose ether helps control how the surface cleaner flows during use — spreading smoothly under wiping pressure while maintaining enough body during storage and dispensing. Good rheology balance is especially important on vertical surfaces or spray applications.
Surface cleaners applied to vertical tiles, bathroom walls, or inclined surfaces should not run too quickly before cleaning agents have time to act. A suitable cellulose ether grade helps improve flow control and supports longer surface contact time.
Many surface cleaners contain opacifiers, fragrance droplets, particles, colorants, or functional additives that need stable distribution throughout the product. Cellulose ether can support suspension stability when properly matched with the complete formulation system.
For spray cleaners, viscosity must remain low enough for consistent spray pattern and nozzle performance. For thickened cleaners, viscosity should support controlled spreading without excessive residue. Grade and dosage selection should match the final application method.
A suitable cellulose ether grade helps maintain stable texture, viscosity, and appearance during storage — reducing separation, viscosity loss, settling, and inconsistent performance across different temperatures and conditions.
When surface cleaner fails viscosity, spray, or stability targets, cellulose ether grade, dosage, hydration, or compatibility is often the first variable to review.
Low viscosity or weak thickening system.
HEC builds viscosity and improves product body.
Viscosity too high or wrong rheology profile.
Use lower viscosity grade and optimize dosage.
Insufficient body or weak flow control.
Improve viscosity and controlled flow behavior.
Poor suspension or formulation imbalance.
Support suspension stability through grade selection.
pH, solvent, surfactant, salt, or temperature interaction.
Test compatible grade with full formulation system.
Excessive dosage or unsuitable viscosity grade.
Adjust grade selection and dosage level.
Poor dispersion or hydration method.
Improve addition sequence and mixing process.
Excessive polymer or poor wiping balance.
Optimize dosage and complete formulation design.
Surface cleaner formulations vary widely in chemistry and complexity. Multiple factors influence how cellulose ether performs in the final product.
Spray cleaners, thickened liquids, gels, concentrates, and ready-to-use cleaners require different viscosity targets and rheology profiles. Grade selection must match the intended product format and application method.
Surfactant type, concentration, and combination affect wetting, cleaning performance, foam behavior, viscosity response, and compatibility with cellulose ether. Surfactant system should be evaluated during formulation testing.
Solvents can improve cleaning performance and quick-drying behavior but may influence cellulose ether hydration, product clarity, viscosity development, and long-term stability.
Neutral, acidic, and alkaline surface cleaners have different compatibility and stability requirements. Cellulose ether grade selection should match the final pH range of the formulation.
Salts, builders, and chelating agents may affect viscosity development, product clarity, and long-term stability. High-electrolyte systems require careful grade selection and testing.
Surface cleaner residue, wiping feel, and surface finish quality should be tested on all target surfaces including glass, ceramic, stainless steel, plastic, and painted surfaces.
Fragrance oils and preservatives can influence product clarity, viscosity stability, and long-term storage performance. Compatibility should be confirmed during formulation development.
Addition sequence, hydration time, mixing speed, and water temperature all affect cellulose ether dispersion quality and final viscosity development. Poor dispersion leads to lumps, fish eyes, and inconsistent viscosity across batches.
Choosing the right cellulose ether requires balancing viscosity target, sprayability, wiping behavior, surface contact time, suspension stability, product clarity, and storage performance.
Grade Selection Guide
LANDERCOLL can review your surface cleaner formulation direction and recommend suitable HEC, CMC, or selected cellulose ether grades for testing.
Spray, thickened liquid, gel, concentrate, or ready-to-use?
Kitchen, bathroom, glass, floor, or multipurpose?
What surfactant system and loading level are used?
What pH range is required for the final formulation?
What solvent level and type are included?
Clear, opaque, or does it contain suspended particles?
What target viscosity is required for the application format?
Is sprayability, surface cling, or wiping behavior the primary priority?
What fragrance and preservative system is used?
What temperature range and shelf life are expected?
LANDERCOLL provides product-related documentation to support surface cleaner formulation testing, purchasing review, quality approval, and import compliance.
Formulation & Performance Evaluation
Supporting surface cleaner development with complete technical documentation.
— LANDERCOLL R&D —Product specifications and performance data for formulation review.
Safety, handling, and regulatory information (SDS / MSDS).
Batch quality confirmation supplied per shipment.
Overview of cellulose ether range and application areas.
Formulation guidance and usage recommendations.
Grade recommendation for specific surface cleaner applications.
Handling, shelf life, and storage condition reference.
Available where applicable for international orders and import compliance.
All documents supplied upon request to support formulation review, quality approval, and import compliance.
Request Product DocumentsHEC grade selection for viscosity control and rheology adjustment
Sprayable or thickened cleaner formulation support
Gel texture and controlled flow optimization
Suspension stability discussion and testing direction
Surface contact and wiping behavior support
Compatibility review for different pH and surfactant systems
Dosage reference for different surface cleaner types
Sample provision and quotation communication
If your surface cleaner is too watery, too thick, difficult to spray, unstable during storage, separating, forming lumps, or leaving an undesirable wiping feel or surface residue, the cellulose ether grade or dosage may need to be reviewed.
LANDERCOLL can help evaluate suitable HEC, CMC, and selected cellulose ether options based on your product format, surfactant system, pH, solvent level, viscosity target, application method, and storage requirement.
HEC (Hydroxyethyl Cellulose) is the most commonly used cellulose ether in surface cleaner formulations. It provides viscosity control, rheology adjustment, smooth texture, suspension stability, and storage stability. CMC and HPMC may be considered in selected customized systems after compatibility testing.
HEC dissolves in the water phase and builds viscosity, product body, and a structured rheology network. In surface cleaner, this improves controlled flow, supports suspension of opacifiers and particles, helps balance spray and wipe application behavior, and maintains stable consistency during storage.
Yes. Low viscosity HEC or selected cellulose ether grades may be used in spray surface cleaners. Dosage must be carefully controlled — typically in the range of 0.05%–0.3% — to maintain good sprayability and avoid nozzle performance issues.
Cellulose ether primarily supports viscosity, texture, suspension, and application stability — not cleaning chemistry. Cleaning performance depends on surfactants, solvents, pH, builders, active ingredients, and application conditions. However, improved flow control can support longer surface contact time.
A common reference dosage range is approximately 0.05%–1.2% by formulation weight, depending on product format, target viscosity, surfactant system, solvent level, and cellulose ether grade. Spray cleaners typically use lower dosages, while gel and thickened cleaners use higher dosages. Final dosage must be confirmed through testing.
Separation may be caused by poor suspension system design, surfactant incompatibility, pH changes, solvent effects, high electrolyte levels, temperature fluctuations, or an unsuitable cellulose ether grade for the system. A full formulation compatibility review is recommended.
The viscosity may be too high, the cellulose ether grade may be unsuitable for spray applications, or the formulation may have poor rheology balance. A lower viscosity grade, reduced dosage, or different grade selection may be needed.
Start by defining your product format, target viscosity, spray or wipe application method, pH, surfactant system, solvent level, clarity or suspension requirement, storage conditions, and production process. LANDERCOLL can review your formulation direction and recommend suitable HEC or selected cellulose ether grades for evaluation and testing.
Whether you produce multipurpose surface cleaner, kitchen cleaner, bathroom cleaner, spray cleaner, thickened liquid cleaner, gel surface cleaner, concentrated cleaner, or opaque particle cleaner — LANDERCOLL can help you choose the right cellulose ether grade for better viscosity control, stable flow, suspension support, spray and wipe application balance, and formulation consistency.
Our team can provide grade recommendations, dosage references, technical data sheets, samples, and quotations to support your formulation development and purchasing process.
LANDERCOLL cellulose ether products are manufactured for industrial and commercial use. All formulation data, dosage references, and application guidance provided are for general reference only. Final product performance must be confirmed through testing under your specific formulation, process, and storage conditions.
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