Bench top Turbidity Meter LTM-T2013

Introduction

Bench top turbidity meter with microprocessor controlled system, works on 90° scattered light principle to measure water turbidity in nephelometric turbidity unit i.e. . The formazine standard solution of turbidity mentioned in 7027 is used for turbidity analysis. This turbidity meter delivers highly accurate results with better numerical calculations to meet standards.

This water testing 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

Used in water treatment plants, swimming pool, water recycling units, research and quality laboratories of pharmacy, life science, food, and beverage industry.

Specifications

Measuring range ()	0 to 50, 0 to 100, 0 to 200, 0 to 400, 0 to 800
Minimum readout value ()	0.01, 0.1
Calibration point	5
Sample volume	5 to 10 ml
Principle method	90° scattered light
Operating temperature	5 to 40°C
Working temperature	5 to 40°C
Light source	Infrared-emitting diode (850 nm λ)
Detector	Silicon photodiode
Error value	± 6 % (± 2 % F.S)
Zero drift	± 0.5 % F.S.
Reset functions	Yes
Memory	Stores up to 20 sets data
Dimension	400 × 300 × 250 mm
Weight	2.5 kg
Power batteries	DC 1.5 V, 5 AA alkaline batteries
Power supply	AC 220 V, 50 Hz

Features

Quick and automatic multi-points calibration

Back light display with touch keypad

Wide measurement range

Non- linear data processing and transfer

Selectable automatic or manual switch mode

High through put stability

Auto power off function

Easy to operate

FAQs

1. What types of industries or applications can benefit most from using the It Bench Top Turbidity Meter ?

It Bench Top Turbidity Meter is ideal for environments where water clarity is critical, such as water treatment plants, swimming pools, and recycling systems. It is also widely used in research and quality control labs in the pharmaceutical, life sciences, food, and beverage industries. meter's high sensitivity and adherence to 7027 formazine standard solution ensure reliability across various regulatory environments. This makes it a versatile instrument for both routine testing and research-grade applications.

2. How user-friendly is the Bench Top Turbidity Meter for routine laboratory or field use?

The Bench Top Turbidity Meter is designed to feature a backlit display and touch keypad for efficient operation. It supports both automatic and manual switch modes, offering flexibility based on user preference. Quick, multi-point calibration and auto power-off enhance efficiency in busy lab settings. Its compact size further support convenience and portability.

3. What makes the Bench Top Turbidity Meter’s measurement accuracy suitable for regulatory or quality compliance?

Bench Top Turbidity Meter uses a microprocessor-controlled system with non-linear data processing to deliver precise turbidity measurements. It achieves an error value of ±6% or ±2% F.S., with a minimum readout as low as 0.01 , ensuring accurate results even at low turbidity levels. Calibration against standards further strengthens its compliance with and international quality protocols. This ensures data integrity in applications that require strict adherence to safety and environmental regulations.

4. What kind of power sources does the Bench Top Turbidity Meter support, and how does this benefit users in different settings?

Bench Top Turbidity Meter operates on both AC power (220 V, 50 Hz) and DC battery power using five 1.5V AA alkaline batteries. This dual power capability allows seamless transition between fixed lab setups and mobile or field operations. Users can perform testing in remote areas without relying on external power sources. This makes it particularly valuable for environmental monitoring or emergency water testing.

5. How much sample volume is required by Bench Top Turbidity Meter and how does that impact the efficiency of testing?

The Bench Top Turbidity Meter requires only 5 to 10 ml of sample volume per test, making it highly efficient for repeated measurements or when sample availability is limited. This small volume requirement is especially useful in research settings where sample conservation is crucial. It also reduces waste and the need for large-scale sample handling infrastructure. The compact sampling further speeds up the testing process without compromising accuracy.