Innovative Test Solutions

Your engineering degree doesn't have to point in one direction to matter here.

At ITS, the work spans aerospace, defense, energy, construction, medical, and more. The engineers who thrive here are curious, precise, and driven by understanding how materials and components actually perform under real conditions.

Whatever stage you are at in your engineering career, there is a place here. The training is hands on, the mentorship is genuine, and the depth of work builds the kind of engineering judgment that carries through an entire career.

We invest in the engineers who join us. The rest follows from there.
Explore open positions at ITS: https://bit.ly/44TJOre

What's in this bag will be tested to its absolute limit.

The specimen inside will be subjected to conditions designed to reveal exactly how it behaves under real service demands. The data that comes out will inform design decisions, validate material performance, and in some programs, determine whether a component is ready for the environments it will actually face.

It doesn't look like much from the outside. That's usually how it goes with the work that matters most.

What does your validation data need to prove? Start that conversation with ITS. https://bit.ly/3KI3nM2

This Memorial Day, we honor those who gave everything in service to this country.

Their sacrifice is not lost on us. The work we do, and the standard we hold ourselves to, exists in part because of the men and women who made it possible.

To those who served and to the families who carry their memory, we are grateful. Today and every day.

Most programs default to high-cycle fatigue testing.

For components where each cycle carries significant stress, that's the wrong test. Low-cycle fatigue governs the failure. And data collected against the wrong standard doesn't just miss the failure mode. It gives you confidence you haven't earned.

Understanding which fatigue regime governs your component is not a detail. It's the foundation of a valid test program.

Get the full breakdown before your next test program: https://bit.ly/4tNO3Pp

Finding a reliability problem during design is an engineering challenge.

Finding it after the service window is committed is a program problem.

The difference between the two is rarely the problem itself. It's when validation happened and how closely it reflected real service conditions.

Physical testing that accounts for real operating conditions doesn't just confirm performance. It brings risk forward to a point in the program where something can still be done about it.

Before your program reaches the point of no return, connect with the ITS team: https://bit.ly/3KI3nM2

Tensile testing is the foundation of material characterization.

It establishes how a material behaves under load, where it yields, and where it ultimately fails. For programs that depend on material performance data to drive design decisions, those answers are the starting point for everything that follows.

ITS performs tensile testing across a broad range of materials and specimen geometries, delivering precise, defensible data for programs across aerospace, defense, energy, construction, and medical industries.

The data behind your design decisions has to be defensible. See how ITS delivers it: https://bit.ly/48Ujlww

Load tells you one thing. Load plus heat tells you something completely different.

Most programs spec for peak conditions. Fewer account for what happens when elevated temperature, sustained load, and time interact simultaneously.

Temperature doesn't just raise the stakes. It changes the rules.

Creep builds quietly. Oxidation attacks from the surface inward. And when those mechanisms operate together, the margin that looked sufficient may not hold.

High temperature validation isn't a single test. It's a strategy built around the conditions components actually face.

Margin is calculated against what a design expects to see in service. Not against how those variables interact with each other over time.

When thermal cycling, sustained load, and fatigue accumulation combine, the margin that looked sufficient on paper doesn't always hold up in the field.

💡 Where have you seen that gap show up?

Sub-miniature creep testing tells you how a material behaves under sustained load and elevated temperature over time.

When full-scale component testing isn't feasible, the right boundary conditions and custom fixturing mean small-scale specimens can still reveal the failure behavior that programs depend on.

Small specimen. Critical insight.

Learn more about sub-miniature creep testing at ITS:
🔗 https://bit.ly/480IbK5

Different industries. Different demands. The same uncompromising standard.

Every program ITS supports depends on validation data that holds up under review, under real service conditions, and under the pressure of program decisions that can't be walked back. Regardless of sector.

Explore how ITS serves your industry:
🔗 https://bit.ly/41vfnpw