High Performance Materials Analysis Applications. Why Laboratories Choose LECO.


In industries where failure is not an option, for example—aerospace, automotive, energy, medical, and advanced manufacturing—materials must perform under the most extreme conditions. Whether it’s withstanding temperatures above 1000 °C, resisting corrosion in chemically aggressive environments, or maintaining structural integrity under high stress, the demand for high performance materials is only increasing as our world continues to innovate.

With so much at stake, it’s critical to ensure your high performance materials are truly ready to perform. But performance doesn’t begin on the production line—it begins in the lab.

LECO helps engineers, scientists, and quality professionals solve the toughest analytical challenges in material development, compliance, and failure prevention.

Our solutions span the full spectrum of elemental analysis, thermal analysis, mass spectrometry, and metallography workflows. With reliable instrumentation, your lab is empowered to make confident decisions with accurate, repeatable data.

Whether your work is research-based or rooted in quality assurance, our systems are designed to streamline workflows, reduce variability, and deliver actionable insights. Continue reading for additional resources including webinars, application notes, and testimonials. You can also request a chat with an industry expert to find the right solution for your organization.


Webinars

Brushed metal texture

Solving Aluminum Challenges with Modern Characterization Tools

Explore how modern characterization tools work together to solve common aluminum alloy challenges.

Application Notes

Alloy metal rods

Ultra-Low Carbon and Sulfur Analysis in Steel, Nickel, and Cobalt Alloys

Maintaining precise control over carbon and sulfur concentrations is vital in the production of steel, nickel-base, and cobalt-base alloys. Even trace amounts of these elements can significantly influence the mechanical properties of a material, affecting its ductility, weldability, and resistance to corrosion. Because surface contamination can cause substantial errors in analytical data, achieving reliable results…
aerospace engine construction

Determining Oxygen and Nitrogen in Refractory Metals with ON736

Oxygen and nitrogen play a critical role in the mechanical properties of titanium alloys, influencing strength, hardness, and surface embrittlement. This application note describes the simultaneous determination of oxygen and nitrogen using the LECO ON736, which employs an electrode furnace, inert carrier gas, and infrared and thermal conductivity detection to support precise quality control in…
steel foundry worker pouring cast iron

Bulk Analysis of Cast and Wrought Aluminum Alloys with GDS900

Aluminum alloys are widely used in aerospace and other structural applications due to their strength-to-weight ratio and corrosion resistance. This application note describes elemental determination of aluminum casting and wrought alloys using the LECO GDS900 glow discharge atomic emission spectrometer, which delivers uniform sputtering, reduced spectral interferences, and stable, linear performance for routine production and…
Common refractory metals

Hydrogen Reactive-Refractory Metals using H836EN

Refractory metals such as titanium and zirconium can be combined with elements such as aluminum, vanadium, molybdenum and tin to produce high-strength, low density, and corrosion resistant alloys. These alloys are used by military, medical, sporting, and aerospace industries because of these properties. Due to the strict demands of these industries, effort needs to be…
aluminum vehicle cladding

Determination of Hydrogen in Aluminum

This application note describes the determination of hydrogen content in aluminum using the H836EN. By utilizing stepped furnace analysis, the instrument effectively differentiates between surface and bulk hydrogen to ensure material integrity.
mechanics assembling airplane

Using C844 to Determine Carbon in Refractory and Reactive Metals

Titanium alloys are widely used in aerospace, medical, and military applications due to their strength, low density, and corrosion resistance. This document discusses carbon as an alpha-stabilizing element in titanium, its impact on alloy properties, and why controlling carbon as an impurity is critical to meeting strict quality standards in commercially pure and alloyed titanium.
Hollow Galvanized Steel Beams

Carbon and Sulfur in Iron, Steel, Nickel-Base, and Cobalt-Base Alloys

The determination of carbon and sulfur levels is a critical quality metric for iron, steel, nickel, and cobalt-base alloys, as these elements significantly influence material properties like hardness, ductility, and malleability. Utilizing a high-efficiency induction furnace and an advanced infrared detection system, the CS844 provides the rapid and precise analysis necessary for demanding production environments…
Alloy metal rods

Determining ONH in Alloys: Optimizing Cycle Time and Performance

Oxygen, nitrogen, and hydrogen are critical quality metrics in steel and nickel- and cobalt-based alloys, directly influencing strength, ductility, porosity, and embrittlement. Explore the principles of simultaneous ONH determination using the LECO ONH836, which employs a high-power electrode furnace to rapidly release and measure target gases. It also outlines best practices for sampling and sample…

Carbon black powder

Determining Carbon Black in Polymers with TGA801

National and regional regulations provide guidance on the approved grade and type of Carbon Black, and some regulations specifically restrict the amount of Carbon Black that may be present in plastics designated for food contact. A common method for determining the content of Carbon Black in polymer materials is thermogravimetric analysis (TGA).
Water jugs

Determining Ash in Plastics with Thermogravimetry

Determining the filler content of plastic is an important aspect of quality control monitoring. Ash is the inorganic remainder that is left after heating a polymer at high temperatures to remove the presence of water and organic matter. Ash content of a plastic is reflective of the relative filler content in that plastic and can…
steel foundry worker pouring cast iron

Determination of Nitrogen in Plastics with FP928

The determination of Nitrogen is crucial in the material characterization and quality control procedures for the manufacturing and molding process of plastic materials. The LECO FP928 is a Nitrogen determinator that utilizes an automated Dumas combustion method and provides accurate and precise results in approximately five minutes. This eliminates involved sample preparation and the use…
Water jugs

Determination of Ash in Polyethylene

The LECO TGA801 offers a high-capacity solution for determining ash and inorganic filler levels in polyethylene (PE) resins to ensure consistent UV resistance and structural durability. By analyzing up to 19 macro samples simultaneously, manufacturers can precisely monitor additives like titanium dioxide and glass fibers to maintain the high-performance standards required for PE films, pipes,…


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