Electronic counting Balance

Electronic counting balances measure the mass of objects using the electromagnetic force balance principle. Built-in sensors convert weight into electrical signals, which are then processed by a microprocessor to display the numerical value. They are used for laboratory weighing, industrial portioning, and material counting, enabling rapid quantification of items with identical specifications.
Selection
Select the weighing range based on the sample weight range, considering the minimum weighing value for practical use. Pay attention to environmental vibrations and airflow influences, and choose a model with a windbreak cover. Check the calibration method and compliance certifications to ensure they meet daily weighing accuracy requirements. Compare the stability and response speed of different brands.

Terms

Standards

Instruments

With 0.01g Readability and 200g weighing range, support counting function and unit conversion, AC and DC dual-use design is easy to carry and use, Stabilization time does not exceed 5 seconds.

$ 152.00

Using high precision Sensor and Glass Draft Shield, weighing accuracy of 0.001g, Stabilization time ≤ 3 seconds. Configure battery to realize AC and DC dual-use, with counting, unit conversion and other practical functions.

$ 194.00

Equipped with RS232 serial port to realize data communication, with counting function and external calibrating ability, weighing range 2000g, Readability 0.01g, stable time does not exceed 5 seconds.

$ 323.00

Using strain Gauge Sensor, weighing range up to 5000g, repeatability error +/- 3g, with auto calibration and counting function, stable time does not exceed 5 seconds, equipped with standard calibrated weight.

$ 167.00

Range 1000g, accuracy 0.1g, equipped with 500g test weight, with counting, AC-DC dual-use, SI unit conversion function, Stabilization time ≤ 5 seconds.

$ 112.00

Using strain Gauge Sensor, repeatability error +/- 0.3g, stable time ≤ 5s, with auto calibration, counting and SI conversion functions, support RS232 data interface.

$ 299.00

Using strain Gauge Sensor, repeatability error +/- 0.3g, stable time ≤ 5 seconds, with auto calibration and counting functions, support international unit conversion.

$ 185.00

Accuracy of 0.1g, weighing range of 0~ 1000g, equipped with test weight and RS-232 interface, support counting function, Stabilization time ≤ 5 seconds, suitable for efficient weighing and data recording.

$ 154.00

The use of strain Sensor combined with high-performance microprocessor ensures accurate and stable weighing; accuracy up to 10mg, with automatic fault detection and overload protection, support counting and unit conversion functions.

$ 138.00

Range 200g, accuracy 0.1g, equipped with trapezoidal pan and AC/DC dual-use function, support Automatic calibration, counting and SI conversion, Stabilization time is less than 5 seconds.

$ 112.00

Using Strain Gauge Sensor, weighing range 3000g, Readability 0.01g, with auto calibration and counting functions, stable time does not exceed 5 seconds.

$ 506.00

With 1g minimum weighing value and +/- 3g repeatability error, support for auto calibration and counting functions, with trapezoidal stainless steel pan and RS232 interface.

$ 188.00

With 0.01g High Accuracy and 200g range, support counting, unit conversion and AC/DC dual-use, Stabilization time ≤ 5 seconds, equipped with test weight, adapt to 5~ 40 ℃ working environment.

$ 119.00

+/- 0.3g repeatability error with strain Gauge Sensor, external calibrate function and Φ 125mm pan, stable time no more than 5 seconds, support counting and SI conversion.

$ 156.00

It has 3000g weighing range and 0.1g accuracy, supports auto calibration and counting functions, is equipped with RS232 data interface, and uses strain Gauge Sensor to ensure stable measurement.

$ 196.00

Articles

A Comprehensive Guide to Selecting an Electronic Balance
This article introduces the key points for selecting an electronic balance. It provides a detailed list of core parameters such as accuracy class, repeatability, and linearity error, and explains their impact.
Summary of Balance Selection for Different Application Scenarios
This article discusses how to choose a balance based on usage needs. First, you need to understand the basic parameters of a balance, such as its maximum capacity and precision.
Grade classification of balances based on different repeatability indicators
The repeatability of a balance refers to the consistency of multiple weighing results for the same load under identical conditions, which is a key indicator for evaluating the performance of a balance. It is typically expressed as the standard deviation or range, with smaller values indicating greater stability and reliability of the balance.
Selection criteria for linearity error of semi-micro balances
The linearity error of a semi-micro balance refers to the deviation between the actual displayed value and the theoretical value within its weighing range. This indicator directly affects the accuracy of weighing, which is particularly important in scenarios requiring high-precision measurements, such as material analysis or environmental monitoring.
Selection Considerations for Balances with Different Weighing Pan Materials
When selecting the material of the balance weighing pan, it is necessary to comprehensively consider the sample properties, measurement environment, and operational requirements.
Weighing lower limit of microbalances and selection basis
The lower weighing limit of a microbalance refers to the minimum mass that can be measured while ensuring accuracy, which is crucial for the reliability of experimental data. It is influenced by factors such as sensor sensitivity, structural resistance to interference, and environmental stability.
Which one to choose: built-in calibration or external calibration balance?
This article primarily compares the two calibration methods for balances: internal calibration and external calibration.
Differences in the Selection of Analytical Balances and Precision Balances
Analytical balances and precision balances are both high-precision weighing instruments commonly used in laboratories, but they differ primarily in terms of accuracy and application scenarios.
Repetibility Test Method and Weights for Semi-micro Balances
This article discusses the method for repeatability testing of semi-micro balances and the use of weights. Repeatability refers to the consistency of the balance's results when weighing the same object multiple times under the same conditions, which is crucial for the reliability of experimental data.
Laboratory Application Scenarios of Milligram Precision Balances
The milligram precision balance can accurately weigh up to 0.001 grams, primarily utilizing electromagnetic force compensation technology, and its performance is related to parameters such as repeatability and linearity error.
Analysis of Causes for Excessive Repetition Error in Microbalances
Microbalance repeatability out-of-tolerance refers to the situation where the results of multiple weighings of the same object exceed the allowable range of variation.
Oven combined with analytical balance for determination of solid content
This article introduces a method for determining the solid content of samples in the laboratory by combining an oven and an analytical balance.
Halogen Moisture Analyzer Rapidly Determines the Moisture Content of Samples
The halogen moisture analyzer utilizes the principle of thermal gravimetric analysis, rapidly heating the sample with a halogen lamp to evaporate moisture. The built-in balance monitors mass changes in real-time and automatically calculates the moisture content.