1. What are the capacity and readability of this analytical balance?
This model has a maximum capacity of 220 g and a readability of 0.1 mg (0.0001 g). It is suitable for routine high-precision laboratory weighing that requires both fine resolution and practical working capacity.
2. Is 0.1 mg readability the same as the minimum sample weight?
No. Readability is the smallest displayed increment, not the recommended minimum sample weight. The actual minimum sample weight depends on repeatability, permitted relative error and laboratory procedures. Please provide your smallest sample weight and acceptable tolerance for evaluation.
3. Is the 220 g x 0.1 mg model suitable for my application?
It is suitable for pharmaceutical formulation, chemical analysis, scientific research, quality control, precious-metal testing, paints, coatings and other laboratory applications. Please provide the container weight, sample weight and required tolerance so we can verify the configuration.
4. What is the difference between a 0.1 mg analytical balance and a 0.01 mg semi-micro balance?
A 0.01 mg semi-micro balance provides ten times finer display resolution than a 0.1 mg model. Choose 0.01 mg for extremely small samples or tighter uncertainty requirements. Choose 0.1 mg for routine precision weighing with greater practical capacity.
5. Does this analytical balance include automatic internal calibration?
Yes. The balance supports automatic internal calibration triggered by temperature changes or preset time intervals. This reduces routine manual calibration work and helps maintain consistent weighing performance during daily laboratory operation.
6. How does temperature compensation improve weighing stability?
Temperature compensation helps reduce result drift caused by changes in ambient temperature. The recommended operating temperature for the 0.1 mg model is 18-27degree Celsius. A stable bench, low vibration and limited airflow are still required for reliable results.
7. How quickly can the balance provide a stable result?
The typical stabilization time is less than three seconds under suitable laboratory conditions. Actual stabilization may vary depending on the sample, vibration, airflow, temperature changes and filtering settings.