Need Chemically Resistant Workbenches? Here’s How We Equip Labs for Thermal & Chemical Testing

Chemically Resistant Workbenches for Thermal & Spectral Analysis

In Oil & Gas R&D, understanding material behavior at a molecular and thermal level is crucial to ensuring long-term reliability of components exposed to extreme environments. The material testing lab plays a pivotal role in characterizing the chemical composition, thermal stability, and degradation properties of elastomers, polymers, and metal samples used across drilling and exploration equipment. To support this, 

The client operates three critical instruments:

FTIR Spectrometer
FTIR Spectrometer (Fourier Transform Infrared)

for molecular fingerprinting and chemical composition analysis.

Differential Scanning Calorimeter
Differential Scanning Calorimeter (DSC)

for identifying thermal transitions like melting, glass transition, and crystallization.

Industrial Manufacturing workstations and workbenches
Thermogravimetric Analyzer (TGA)

for studying material degradation, mass loss, and thermal stability under various atmospheric conditions.

These machines often involve the use of solvents, chemical reagents, and sample preparation agents during operation – necessitating a work surface that is not only structurally robust, but also resistant to spills, stains, and chemical corrosion.
The client’s requirement was clear: Ensure machine stability, enable safe chemical handling, and maintain workflow organization for efficient testing cycles.

Furnisys Solution:

HPL Mounted Workbenches for Analytical Equipments

To meet the lab’s multi-instrument setup and environmental demands, Furnisys delivered a customized mix of durable, modular workbenches – each tailored to the functional and chemical needs of its respective equipment.

🔹 Workbench for FTIR Spectrometer:

A Scitec Workbench with a High-Pressure Laminate (HPL) Worktop was configured. This setup provides a minimal yet sturdy footprint, ensuring instrument vibration is absorbed while maintaining resistance to alcohols, mild acids, and sample prep chemicals commonly used during spectral testing.

High pressure laminate workbenches (1)High pressure laminate workbenches (2)
Differential Scanning Calorimeter (DSC) workbenches (1)Differential Scanning Calorimeter (DSC) workbenches

🔹Workbench for Differential Scanning Calorimeter (DSC):

Mounted on a workbench with two base cabinets and HPL worktop, this configuration offers strong structural support for the machine’s sensitive heating elements and sample pans. The added storage below allows safe containment of crucibles, tweezers, calibration standards, and maintenance supplies – all within easy reach.

Differential Scanning Calorimeter (DSC) workbenches (1)Differential Scanning Calorimeter (DSC) workbenches

🔹 Workbench for Thermogravimetric Analyzer (TGA):

Also supported by a twin-base cabinet workbench with HPL top, this station ensures thermal equipment remains stable during tests involving oxidizing or inert gas flows. The chemical-resistant worktop helps protect against accidental spillage of reagents or condensed residues that may form during long-duration runs.

Differential Scanning Calorimeter (DSC) workbenches (1)chemical resistant workbench heavy duty workbench

Balanced Worktop Solution for Labs

The HPL surface, chosen for all three benches, strikes the right balance of cost-efficiency, chemical tolerance, and durability, making it ideal for dry and semi-wet lab environments, where chemicals are frequently handled but not heavily aggressive.

Cost Efficient
Chemical Resistant
Durable

This tailored setup ensures that each instrument operates in a stable, secure, and contamination-resistant workspace – enabling smooth transitions from one test to another and promoting a clean, professional lab environment.

Conclusion

In high-stakes environments like Oil & Gas R&D, where chemical precision and thermal reliability dictate the success of field components, the right workstation infrastructure plays a defining role. By integrating purpose-built workbenches with high-pressure laminate (HPL) tops, Furnisys ensures not only the stability of instruments like FTIR, DSC, and TGA, but also the safety and efficiency of daily lab operations. This specialized setup empowers testing teams to focus on what matters most – accuracy, repeatability, and speed – while minimizing the risk of contamination, corrosion, or equipment failure.

F.A.Q.

1. Why are chemically resistant worktops essential for R&D laboratory workbenches?

Chemically resistant workbenches are designed to withstand exposure to acids, and other harsh substances during analytical testing. They’re ideal for labs conducting FTIR, DSC, and TGA tests in Oil & Gas and other industrial sectors.

2. Which worktop material is most suitable for thermal and chemical analysis?

High-Pressure Laminate (HPL) worktops are ideal for labs performing thermal and chemical testing. They offer excellent durability, resistance to corrosion, and stability for high-precision instruments.

3. Why is modularity important in lab workbench design?

Modular lab workbenches can be configured to suit specific instruments like FTIR spectrometers and calorimeters, offering ergonomic access, vibration control, and easy organization of testing tools and chemicals.

4. How do HPL workbenches improve lab safety during spectral and thermal analysis?

HPL surfaces resist chemical spills and heat, providing a safer environment for handling reagents and operating thermal analysis machines. They also reduce contamination risk and cleanup effort.

5. Can Furnisys lab workbenches be tailored for Oil & Gas R&D testing setups?

Yes. Furnisys offers custom workstations with base storage, structural support, and chemical-resistant surfaces designed for thermal and chemical analysis tools in Oil & Gas manufacturing labs.

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