Recent Blogs

HPLC troubleshooting doesn’t have to be overwhelming. Common issues like pressure fluctuations, baseline noise, and peak splitting can often be resolved with systematic diagnostics and simple adjustments. For pressure issues, regularly inspect filters, frits, and tubing, and ensure solvents are properly degassed. Baseline noise typically stems from mobile phase contamination or detector problems, which can be mitigated with clean solvents and proper flow cell maintenance. Peak splitting often points to column problems or solvent mismatches, which can be resolved by proper column installation and ensuring injection solvent compatibility.

Sustainability in chromatography is no longer just a trend; it’s becoming a necessity for labs worldwide. From reducing solvent waste with green HPLC techniques to adopting reusable and recyclable consumables, labs are finding innovative ways to minimize their environmental impact. Advances in energy-efficient equipment and eco-friendly solvents make it possible to maintain high analytical standards while cutting costs and waste.

Building a sustainable lab culture starts with small steps—switching to greener solvents, using reusable columns, or encouraging team-wide eco-friendly practices. These changes not only benefit the planet but also improve operational efficiency and reduce costs. As we move forward, sustainable chromatography will play a key role in shaping a greener, more responsible scientific future.

Introduction: The Importance of HPLC Lab Maintenance Have you ever experienced an unexpected system failure right in the middle of an important run? It’s one of the most frustrating experiences in an HPLC lab. High-Performance Liquid Chromatography (HPLC) is integral to analytical and preparative work in industries like pharmaceuticals, food

Gas chromatography (GC) is a pivotal analytical technique in drug testing, offering high sensitivity and specificity for detecting and quantifying substances in biological samples. Its applications span workplace screenings, sports doping controls, forensic investigations, and rehabilitation monitoring. The process involves sample preparation, injection, separation through a chromatographic column, and detection, resulting in a chromatogram that analysts interpret to identify compounds. Advancements in GC technology, such as automation and enhanced detectors, continue to improve its efficiency and accuracy, solidifying its role in ensuring safety and compliance across various sectors.

Proper maintenance of lab equipment is essential to ensure accurate results and prolong the life of expensive instruments. Key maintenance practices include regular cleaning, scheduled calibration, and consistent inspections. Cleaning prevents residue buildup that can affect performance, while calibration ensures accurate measurements.

High-Performance Liquid Chromatography (HPLC) relies heavily on the purity of water used in the process. Impurities in water can lead to inaccurate results and damage to equipment. Therefore, using HPLC-grade water, which is free from organic, inorganic, and microbial contaminants, is essential. This water is typically purified through methods like reverse osmosis, distillation, and deionization to achieve high resistivity and low total organic carbon (TOC) levels. Proper storage and handling of HPLC water are also crucial to maintain its purity and ensure reliable analytical outcomes.