Melting Point Apparatus LDMP-T2030

Introduction

Melting Point Apparatus offers a processing capacity of four-sample batch capacity, enabling simultaneous processing of up to 4 capillary tube samples per run. It has a high-speed preheating to reach the target temperature rapidly. The system has integrated temperature sensors for real‑time monitoring and high thermal control. Our melting point apparatus features bright sample chamber illumination, ensuring visible observation of samples throughout the melting process.

This melting point apparatus is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Melting Point Apparatus observes the precise temperature range at which it transitions from solid to liquid. It is widely utilized in forensics, pharmaceuticals, chemical industries industry for identifying unknown solids by comparing their melting behaviour.

Specifications

Temperature Range	RT to 350°C
Detection Method	Semi-automatic
Processing Capacity	4 / batch
Temperature Resolution	0.1°C
Accuracy	± 0.3°C (< 250° C) ± 0.5°C (>250° C)
Repeatability	± 0.1°C at 0.1°C / Min
Video Function	Take pictures and Videos
Video Playback	No
Magnification	10
Storage Space	32 Head drive, 2G memory
Experimental Method Storage	50 sets
Display Mode	8’ HD Color Screen
Data Interface	, network wifi interface, RS 232
Standard Capillary Size	Outer diameter 1.4mm, inner diameter 41.0 mm
Power Supply	110 to 220 V 50 Hz / 60 Hz
Power Consumption	120 W

Features

Fully Enclosed Heating Block

Real-Time Graph Display

Rapid Preheating Mode

High- Resolution Microscope Lens

Multiple User-Programmable Profile

FAQs

1. What are the most common causes of melting point errors and how can they be resolved in -A 30?

It supplies advanced models of melting point apparatus . Misleading results often stem from sample impurities (which depress melting points), overly rapid heating (masking true melting behaviour), blocked light paths or dirty optical systems, or faulty temperature sensors. Troubleshooting involves inspecting and cleaning optics, verifying sensor calibration, replacing defective capillaries, and comparing sample readings with known references to isolate sample issues.

2. What environmental and operational precautions improve measurement consistency in ?

It supplies advanced models of melting point apparatus . To maintain instrument longevity and accuracy, keep the device in a dry, dust-free, and well-ventilated environment. Clean the sample holder and optical window before each run to prevent buildup. Use only approved capillaries and avoid inserting damaged or contaminated tubes. After use, power down and allow the block to cool safely before removing samples or cleaning, protecting both equipment and user.

3. What role does data logging play in professional melting point analysis in melting point apparatus ?

High-end melting point apparatus often include onboard data logging—typically with internal storage -to record complete melting profiles. This lets you track not only start and end points, but also the rate of temperature rise, plateau behaviour, and any anomalies during heating. Logged data can be exported via or Wi Fi to lab software, making it easy to include melting curves in reports or regulatory documentation. Complete traceability also supports audits and quality control, showing exactly how each measurement was conducted.

4. How often should the melting point apparatus be calibrated and verified?

Regular calibration is essential for accurate results. You should perform a full calibration-using certified standards like benzoic acid or naphthalene-at least once per year, or whenever the unit has been moved or serviced. In between, verify performance monthly or weekly using one-point checks on a known standard. Always record calibration dates and outcomes. Keeping up with this schedule ensures your instrument stays within specification and your data remains reliable—especially important for regulated work or published research.

5. How do heating rate and initial temperature settings affect accuracy in melting point apparatus ?

It supplies advanced models of melting point apparatus . A controlled heating process enhances melting point precision. Begin with a moderate temperature rise to approach the expected melting zone, then switch to slower, more gradual heating to clearly capture the onset and complete phase transition. Incorrect starting points or rapid ramping can cause overheating, thermal lag, or blurred melting observations. Following recommended protocols ensures more accurate and reproducible results.