stretch at failure

USAGE SUMMARY

The phrase "stretch at failure" is correct and usable in written English.
It can be used in contexts discussing limits, resilience, or performance under pressure, particularly in fields like engineering or psychology. Example: "The material showed a significant stretch at failure, indicating its capacity to absorb energy before breaking."

✓ Grammatically correct

Science

News & Media

Wiki

Human-verified examples from authoritative sources

Exact Expressions

1 human-written examples

With reference to Figure 1, strength properties are most commonly reported as ultimate tensile strength (σ f ) or ultimate stretch at failure (λ f ), but a yield strength (σ y ) can also be defined as the stress value where the slope of the stress-strain curve starts decreasing.

BioMed Research International

Human-verified similar examples from authoritative sources

Similar Expressions

59 human-written examples

In this contribution, we attempt to derive a tool allowing the prediction of the stretch ratio at failure in rubber components subjected to thermal ageing.

Mechanics of Materials

Samples stretched along the drawing direction reached 28% elongation at failure, whereas samples stretched 90° to the drawing direction reached 44% elongation at failure.

Carbon

A major reason is the lack of transverse compliance, leading to mismatch in elastic stretch at the anastomoses and to failure.

Biotextiles as Medical Implants

Thirty-two specimens were stretched to failure at tension torsion rates of 10 mm/min and 1°/s, 10 mm/min and 40°/s, 500 mm/min and 1°/s and 500 mm/min and 40°/s.

The Knee

Load at failure, specific strength (SS) and tensile strength of CNT fibers increased with wet-stretching.

Carbon

Cohesion at failure state.

Journal of Petroleum Exploration and Production Technology

Ultimate strength at failure.

International Journal of Mechanical and Materials Engineering

Displacement at failure, mm.

International Journal of Concrete Structures and Materials

Friction angle at failure state.

Journal of Petroleum Exploration and Production Technology

Look at failure as a learning opportunity.

WikiHow

Expert writing Tips

Best practice

When describing material properties, specify the conditions under which the "stretch at failure" was measured, such as temperature and rate of stretching. This provides context and improves the reliability of the data.

Common error

Avoid using "stretch" and "strain" interchangeably. "Stretch" refers to the physical act of extending, while "strain" is a measure of deformation relative to the original size. Use "strain at failure" to quantify the deformation.

Linguistic Context

The phrase "stretch at failure" functions as a noun phrase acting as an adverbial modifier, typically describing the extent to which a material can be extended before it breaks or fails. This is seen in the example where ultimate stretch at failure is reported as a strength property.

Expression frequency: Common

Frequent in

Science

70%

News & Media

15%

Wiki

15%

Less common in

Formal & Business

0%

Encyclopedias

0%

Reference

0%

Ludwig's WRAP-UP

The phrase "stretch at failure" is a scientifically valid term that describes how much a material can be extended before it breaks. Ludwig AI confirms the correctness and usability of this phrase. Its usage is common in scientific and technical fields, where quantifying material properties is essential. While alternatives like "elongation at failure" and ""strain at failure"" exist, "stretch at failure" provides a clear and direct way to communicate this concept. When using this phrase, it's important to specify the testing conditions and avoid confusing it with "strain".

More alternative expressions

Phrases that express similar concepts, ordered by semantic similarity:

elongation at failure

Focuses on the measurement of elongation rather than the process of stretching.

strain at failure

Uses 'strain' to emphasize the deformation experienced by the material.

deformation at failure

Highlights the change in shape or form when failure occurs.

tensile stretch at rupture

Adds 'tensile' to specify the type of stretching force and uses 'rupture' instead of 'failure'.

maximum stretch before breaking

Rephrases 'failure' as 'breaking' and emphasizes the limit of stretch.

ultimate tensile stretch

Highlights the maximum amount of stretch a material can withstand under tension.

critical stretch point

Focuses on the specific point where stretching leads to failure.

limit of elasticity

Emphasizes the boundary where a material ceases to return to its original shape.

point of material breakdown

Uses a more general term 'breakdown' to describe failure.

yield point under tension

Highlights the point where permanent deformation begins under tensile stress.

FAQs

How is "stretch at failure" measured in materials testing?

The "stretch at failure" is typically measured by subjecting a material to tensile force until it breaks or fails. The elongation of the material is recorded, and the "stretch at failure" is the percentage increase in length at the point of failure. This can be reported as "strain at failure".

What factors affect the "stretch at failure" of a material?

Several factors can influence the "stretch at failure", including temperature, the rate of stretching, the material's composition, and any prior treatments or stresses it has undergone. For example, thermal ageing can affect the "stretch ratio at failure" in rubber components.

How does "stretch at failure" relate to a material's overall strength?

"Stretch at failure" indicates a material's ductility or ability to deform before breaking. A higher "stretch at failure" generally suggests a more ductile material, while a lower value indicates brittleness. However, strength also depends on the force required to cause the "deformation at failure".

What are some alternatives to saying "stretch at failure"?

Depending on the context, you can use phrases like "elongation at failure", ""strain at failure"", or ""deformation at failure"". These alternatives emphasize different aspects of the material's behavior under stress but convey a similar meaning.