Krebs Stormer Viscometer LKSV-T2012

Introduction

Krebs Stromer Viscometer is designed with a 500 ml sample container, allowing accurate testing of larger fluid volumes in a single run. It features an display of viscosity values and test data. The instrument includes an overload protection system to protect internal components from excessive force. Our Krebs stormer viscometer features various measurement units such as Krebs unit (KU)and centipoise (cP) making it ideal for diverse testing needs.

This analytical equipment is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Krebs Stormer Viscometer is an advanced tool used to determine the resistance of thick fluids to shear forces. It is applied in oil and lubricants, cosmetics and construction materials for measuring viscosity and ensuring their formulations.

Specifications

Range	40.2KU to 141.0 KU (27 to 5250 Cp)
Accuracy	±1.0%
Repeatability	± 0.5%
Volume of Container	500 ml
Paddle Speed	200r / min ± 0.1 r / min
Dimension (L × W × H)	210 × 180 × 500 mm
Power Consumption	220 V 50 Hz
Gross Weight	5.1 kg

Features

Wide Viscosity Range

Multi-Sample Testing

High Accuracy Sensors

Battery Powered Operations

Low Shear Viscosity Testing

FAQs

1. How should the Krebs Stormer Viscometer be cleaned after testing different types of formulations?

Proper cleaning of the Krebs Stormer Viscometer after each test is vital for preventing contamination, ensuring measurement integrity, and extending instrument life. Cleaning protocols depend on the formulation type water-based coatings may only require rinsing with warm water and mild detergent, while solvent-based or resinous materials may need compatible solvents such as xylene, mineral spirits, or acetone. Always avoid abrasive pads that can scratch the paddle or housing. The spindle must be carefully removed and soaked if necessary to remove hardened deposits. Use lint-free cloths to wipe down surfaces and ensure no residue remains. Avoid submerging electronic components in cleaning fluids. If using aggressive solvents, check compatibility with instrument materials to avoid corrosion or degradation. Regular inspection for buildup, discoloration, or residue after drying is a key indicator of cleaning effectiveness.

2. What safety precautions should be taken while operating the Krebs-Stormer Viscometer with volatile or hazardous samples?

It supplies advanced krebs stormer viscometer. When testing volatile, flammable, or toxic substances with the Krebs-Stormer Viscometer, safety precautions must be strictly followed. Work in a well-ventilated area or under a fume hood to prevent vapor accumulation. Use personal protective equipment () including gloves, goggles, and lab coats to prevent skin and eye contact. Samples should be handled in closed containers when possible to minimize exposure. Electrical components of the viscometer should be verified as spark-proof or intrinsically safe if working with flammable vapors. Cleaning with volatile solvents must also be done cautiously store solvents in approved containers and away from ignition sources. If the sample emits fumes or has strong odors, use activated charcoal masks or respiratory protection. Follow all local and institutional safety protocols, and ensure Material Safety Data Sheets () are accessible for each substance tested.

3. Can the Krebs Stormer Viscometer be integrated into automated or semi-automated QC systems?

Yes, It modern digital Krebs Stormer Viscometers can often be integrated into automated or semi-automated quality control systems. Many models are equipped with RS232, , or Ethernet ports for data output, allowing connection to computers, PLCs, or laboratory information management systems (). This enables real-time data collection, automated logging, and central quality monitoring across multiple production lines. Some manufacturers offer software packages that support automated data analysis, batch comparisons, and customized reporting. Integration allows for improved traceability, reduced human error, and faster decision-making in fast-paced manufacturing environments. However, the mechanical nature of sample loading and spindle cleaning usually requires manual intervention, unless paired with robotic handling systems. It's important to validate all integration points for data accuracy, signal stability, and user authentication to maintain regulatory compliance.

4. How does shear sensitivity of a material affect measurements on a Krebs Stormer Viscometer?

It supplies advanced viscometers. Materials that are shear-sensitive such as gels, emulsions, or thixotropic suspensions can show drastically different viscosity readings depending on how they are handled before and during testing. Because the Krebs-Stormer Viscometer operates at a single shear rate (due to its fixed 200 rpm speed), it only captures the material's response under that specific stress condition. If the material structure breaks down under shear, viscosity may decrease during testing, leading to time-dependent changes in KU readings. Conversely, if the material requires time to build structure, immediate measurement after agitation might underestimate true viscosity. To mitigate this, standardized pre-conditioning (such as gentle stirring or resting periods) should be applied consistently. For such materials, recording test timing and shear history is critical for data interpretation, and it may be necessary to use supplementary rheological instruments for full characterization.

5. How does operator technique influence test results, and what training should be given to minimize variability?

Operator technique can significantly affect the reliability and repeatability of viscosity readings on the Krebs-Stormer Viscometer. Variability can arise from inconsistent sample loading, incorrect spindle immersion, poor cleaning between tests, or misreading analog scales. In digital models, improper zeroing, hasty sample handling, or skipping temperature checks can skew results. To minimize these issues, all users should be trained on standardized procedures, including sample prep, loading technique, and interpretation of results. Written SOPs and regular hands-on training help reinforce best practices. It’s also beneficial to cross-train operators using inter-laboratory comparison tests (round robins) to identify and address personal technique-related biases. Logging operator names with each measurement improves accountability and supports corrective action if anomalies are detected during audits or quality checks.