Automatic Refractometer LAR-T2016

Introduction

Automatic Refractometer features a brix range of 0 to 100%, making it ideal for measuring sugar concentration in diverse samples for reliable performance. It offers a large data storage capacity for secure record-keeping without external backup. The refractometer has a sapphire-grade prism, ensuring scratch and chemical resistance, durability and high optical clarity. Our automatic refractometer includes a high-resolution linear detector, accurately determining the sample’s refractive index through critical-angle detection.

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

Automatic Refractometer measures the refractive index of liquids using optical sensors. It plays a key role in petrochemical, oil industry, textile, dyeing, photonics, optical, environmental monitoring and dyeing industries for calculating reflective index of material.

Specifications

Measurement Range	1.3000 to 1.7000 (nD)
Resolution	0.00001
Precision	±0.0001
Measurement Accuracy	±0.0003
Correction Point	Multi-point fitting system
Brix Range	0 to100%
Brix Resolution	±0.1%
Accuracy	±0.03%
Temperature Control Mode	Built-in parr patch
Temperature Controlled Method	No
Temperature Range	0 to 100℃
Temperature Control Range	5℃ to 95℃
Temperature Accuracy	±0.02℃
Temperature Control Stability	±0.01℃
Wavelength	589nm
Prism	Sapphire grade
Sample Cell	Stainless steel
Detection Mode	Linear
Output Mode	, RS232, RJ45, SD card, U disk.
Data Storage	32 G
User Management	Four-level
Data Saving Format	, Excel
Audit Tracking	Yes
Dimensions	300 mm ×380 mm ×300 mm

Features

Precise Critical-Angle Detection

Low-Noise Signal 

Multiple Test Mode

Dual Temperature Regulation

Chemical‑ Resistant Sample Cell

FAQs

1. How do automatic refractometers detect and correct for temperature-related errors?

It supplies premium automatic refractometer They use integrated Peltier elements and precision sensors to maintain uniform sample and prism temperature, reducing thermally induced refractive index variations. Samples must equilibrate (typically to 30 seconds) on the prism to match instrument temperature before measurement. Digital Temperature Compensation algorithms adjust readings based on measured sample temperature, referencing standard temperature tables. Calibration at room temperature ensures systems stay accurate recalibration may be needed if ambient conditions shift significantly. Temperature drifts of just a few can introduce errors, so control is crucial. Continuous sensor monitoring keeps thermal errors minimal during long runs. This level of thermal management guarantees precise, reproducible results in diverse operational settings.

2. What sample volumes and types are compatible with automatic refractometers ?

It supplies premium automatic refractometer . They work with sample volumes as low as a few microliters using micro or flow cells, making them ideal for precious or expensive samples. Advanced optical systems enable precise readings even with slight turbidity, color, or bubbles using or photodiode detection. Compatibility ranges from clear aqueous solutions to viscous substances like syrups, oils, or pharmaceutical liquids. Prism hydrophobic coatings and auto-clean modes improve measurement reliability with messy or sticky samples. Flow cells paired with peristaltic pumps or sample changers support unattended, continuous operation. Minimal waste and full sample recovery promote sustainability and cost efficiency. These features suit industries from food/beverage to petrochemicals and biotech.

3. Can automatic refractometers integrate with other laboratory or process systems?

Yes, automatic refractometer feature , , Ethernet, and optional wireless connectivity to PCs, printers, , or systems. Built-in databases store result metadata (time, user, method) and stats, supporting seamless export in , , or Excel formats. Multiparameter workflows allow linking with density, pH, or viscosity meters-data can be consolidated via shared interfaces. Automated methods library and export scripts ensure routine tasks remain consistent and traceable. Audit-ready features like user-level controls, timestamps, and validation logs are included for regulated environments. Onboard scheduling-such as auto maintenance reminders or calibration messages—enhance uptime. These capabilities streamline integration across lab and production ecosystems.

4. What are common sources of error and how are they detected or avoided in automatic refractometer ?

Errors often result from prism contamination, poor sample coverage (air bubbles), inadequate temperature equilibrium, or stale calibration. Poor prism contact or bubbles can distort light paths and shift readings by several percent units. Instruments often feature “Smart Measure” or load-sensing that prevents measurement until proper conditions are met. Regular cleaning after each sample ensures clarity and reproducibility. Calibration schedules catch drift before it affects data quality. Sample mixing and homogeneity are essential; uneven samples yield inconsistent readings. These systems and practices mitigate typical pitfalls and maintain high performance.

5. What validation and compliance features are provided for regulated industries in automatic refractometer ?

automatic refractometers include 21 Part 11 compliance: user-level access, electronic signatures, audit trails, and tamper-proof logs. Validation packages (IQ/OQ/PQ) and guides standardize instrument qualification in pharma and QC labs. Automated calibration reminders and method lock-out features enforce adherence. Time-stamped, user-assigned result entries ensure traceability. Data export and logging support audit processes and cGMP/ regulations. System suitability protocols (e.g., factory verification with certified fluids) ensure ongoing compliance. Together, these features simplify meeting regulatory requirements in industries like pharmaceuticals, food safety, and chemicals.