Laboratory Balance

Laboratory Balances

We understand that measurement accuracy is the foundation of every successful experiment and research endeavor. That’s why we specialize in providing top-quality laboratory balances that ensure precision, reliability, and ease of use. Whether you’re conducting complex research or routine testing, our curated selection of laboratory balances is designed to meet your specific needs.

Analytical Balances

An analytical balance is an extremely accurate measuring device utilized for determining the mass of small samples with exceptional precision and accuracy. Widely employed in scientific research, analytical chemistry, and quality control environments, these balances are crucial in scenarios where even minute weight fluctuations can exert notable impacts.

Why Choose Us

Laboratory Balances come in a range of capacities, from a few grams to several kilograms, allowing you to choose the model that best suits your specific application. Whether you’re weighing delicate samples in a research laboratory or handling bulk materials in an industrial setting, we have the right balance for you.

Durability is paramount in laboratory equipment, which is why our balances are built to withstand heavy usage. Constructed with high-quality materials and precision engineering, our balances are designed to endure the rigors of daily use in demanding laboratory environments.

Why Choose us - Laboratory Balance

Precision Balances

A precision balance is an advanced weighing instrument designed for highly accurate and meticulous measurements of mass. Commonly employed in scientific laboratories, research facilities, and industries requiring exacting measurements, precision balances offer a high degree of sensitivity and precision.

Electronic  Balance

Electronic balances features advanced technology that ensures reliable and consistent measurements, making them ideal for a wide range of applications. Choose from various models offering different capacities and readability to find the perfect match for your specific requirements.

Customer Reviews: Discover What Customers Say.

4.5
Based on 59 reviews
5 star
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4 star
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1-5 of 59 reviews
  1. HC

    Rapid response time helps in fast-paced lab environments.

  2. AJ

    Setup was quick and easy, ready to use in minutes.

  3. SS

    Overall, very durable and reliable balance.

  4. CH

    Perfect for tasks requiring high precision.

  5. HK

    Specifically designed for the needs of textile laboratories.

4.5
Based on 59 reviews
5 star
51
51%
4 star
49
49%
3 star
0%
2 star
0%
1 star
0%
1-5 of 59 reviews
  1. RV

    Highly user-friendly and seamlessly integrates with other analytical equipment.

  2. DP

    Great and easy to use, this balance provides better results than others. We use it for routine samples and various analytical studies.

  3. MP

    Effortlessly precise and reliable analytical balances, trusted for years with exceptional results – a top recommendation.

  4. LK

    Easy to use and calibrate. Provides accurate readings, and the glass doors ensure more stable measurements.

  5. AS

    The equipment is easy to use but the sample holders come in limited size distribution. They could consider supplying multiple-size sample holders.

Frequently Asked Questions About Laboratory Balance

How to Handle Samples When Weighing on a Laboratory Balance?

When handling samples, ensure a clean, dry container and refrain from direct contact with hands. Let the sample adjust to room temperature before weighing for accuracy. Distribute it evenly on the weighing pan to prevent clumps or air pockets affecting measurement.By addressing these queries, users can ensure precise use of laboratory balances. Proper care, maintenance, and usage prolong instrument life, ensuring accurate and reliable results.

What distinguishes a Precision Balance from an Analytical Balance?

A precision balance usually boasts a higher weight capacity compared to an analytical balance, intended for measuring larger quantities of material with less precision. Conversely, an analytical balance is tailored for exceptionally precise measurements, typically for weighing minute amounts of material. Analytical balances are often enclosed to mitigate drafts, featuring small, meticulously polished weighing pans made of materials like glass or metal. On the contrary, precision balances sport larger weighing pans and are commonly open to the air.

How often should a laboratory balance be calibrated?

Calibration frequency relies on manufacturer guidelines, usage frequency, and environmental factors. Typically, it’s advised to calibrate laboratory balances annually or more often for heavy usage. However, if the balance operates in harsh environments or faces significant vibration or shock, more frequent calibration might be necessary to uphold accuracy.

What are the variances among the different types of balances?

Analytical and semi-micro balances offer exceptionally high accuracy and precision, typically with a readability between 0.00001g and 0.0001g. Equipped with draft shields, they excel in handling delicate samples. Precision balances share similarities with analytical balances but offer a readability between 0.001g and 0.1g.Beyond these, various other types cater to specific needs. Floor scales are ideal for larger samples, while bench scales suit smaller workspaces. Portable compact balances are convenient for frequent relocation. Moisture balances specialize in determining the moisture content of samples. These examples illustrate the diversity of commonly utilized balances.

What factors influence the accuracy of laboratory balances?

Accuracy refers to the reliability of the sample reading. Proper calibration is crucial for maintaining accuracy, as frequently calibrated balances yield more accurate results. Additionally, sample placement affects accuracy; samples centered on the balance provide more accurate readings than those placed near the edge. It’s important not to confuse accuracy with readability, which indicates how many decimal places the reading includes. The model and type of balance also play significant roles in determining both accuracy and readability.

Why is an electronic balance the preferred choice for measuring mass in the laboratory?

Electronic balances are preferred due to their high accuracy and repeatability. They utilize advanced load cells to measure the pressure exerted by an object’s mass, converting this pressure into an electric signal. This signal is then processed into mass units and displayed digitally. Some high-precision electronic balances, such as those used in the jewelry industry, can measure with an accuracy of up to one-thousandth of a gram.

How do Analytical and Precision Weighing Balances operate and what are their applications?

The distinction between a balance and scale typically lies in their capacity and readability. Balances commonly employ a force restoration mechanism: when a force, like a load or weight, is applied, the balance counteracts this exerted force from the unknown mass. They tend to be more sophisticated and precise than scales, making them favored by professionals for advanced scientific weighing in various industries. Precision and analytical balances, known for their high precision and advanced technology, play a crucial role in laboratories. They efficiently handle tasks such as weighing test materials, sampling amounts, formulation, density determination, purity analysis, quality control testing, and material and conformance testing. Balances with higher capacities extend their utility beyond laboratories, enabling testing of larger, high-capacity weighing materials, such as those encountered on construction sites.

What weight capacity is needed and how frequently is it required?

Establishing the weight capacity is likely the initial and most pivotal step. This ensures that the balance or scale can manage the maximum weight of the samples being measured, averting potential damage or inaccurate readings. For regular weighing of substantial samples, like 1 kg or more, opting for a balance with a 5 kg capacity would offer practicality, allowing flexibility in measurements.

In what environment will the balance or scale be used?

Understanding the balance or scale’s sensitivity is vital since external factors like temperature and humidity can affect its performance. This awareness allows for compensating potential measurement errors. For instance, a laboratory situated in a humid environment may find it beneficial to use a balance with environmental monitoring and compensation features to maintain accuracy.

How to Clean and Maintain a Laboratory Balance?

Regular cleaning and maintenance are crucial for preserving the accuracy and durability of a laboratory balance. After each use, gently wipe it down with a soft, lint-free cloth, avoiding harsh chemicals or abrasive substances. Keep the balance free from dust, debris, and other contaminants that could impact its performance. Additionally, periodic maintenance, including replacing worn parts and lubricating moving components, can extend the balance’s lifespan.

Why is a laboratory balance such a important tool in laboratory ?

Laboratory balances play a pivotal role in measuring the mass of diverse substances and materials with exceptional accuracy. They find application across a spectrum of lab and manufacturing tasks, including weighing test materials, sample preparation, formulation, density and purity analyses, emissions testing, quality control, and material conformity testing, as well as routine pipette testing. Their significance in laboratories is multifaceted:

  1. Quality Control : Laboratory balances aid in preparing samples and standards necessary for product analysis, ensuring consistent quality and safety of intermediate and final products.
  2. Experimentation : They are indispensable in various scientific experiments, from chemical reactions to physical measurements, accurately measuring the mass of reagents and samples pivotal in many experiments.

When using a laboratory balance, what factors should be given top priority?

The accuracy of weighing results on a lab balance can be influenced by common factors :

  1. Location: Optimal placement of the balance is crucial. It should be situated on a stable, vibration-free surface in a draft-free environment. Avoiding direct light exposure and keeping it away from air vents contribute to accurate measurements.
  2. Physical Influences: Maintain consistent room conditions, including temperature (ideally constant) and humidity (ideally between 45% and 60%). Minimize electrostatic and magnetic interference to ensure precise results.
  3. Operation: Proper operation of the balance is essential. This includes maintaining thermal equilibrium by leaving the balance switched on, ensuring it is level, conducting regular calibrations and adjustments, starting each weighing with a zero display, placing samples in the center of the weighing pan, using appropriate tare vessels, opening draft shields only when necessary, and cleaning the balance thoroughly.