Abrasion Resistance in Equestrian Gear: Why Material Durability Matters
Abrasion resistance influences how equestrian gear handles the repeated rubbing that comes with riding, turnout, handling and everyday care. A saddle pad moves against adjoining equipment, riding gloves contact the reins, and chaps experience friction against the saddle. These small, repeated interactions can gradually affect a product’s appearance and performance.
For equestrian brands, retailers and product developers, durability begins with understanding where that wear occurs. Selecting a heavier fabric or adding another layer does not automatically produce a better product. Material construction, reinforcement placement, fit and maintenance all deserve attention.

This guide explains how to evaluate abrasion resistance, interpret relevant laboratory tests and make practical decisions before approving materials for production. For a broader introduction to product components, explore the horse gear materials and construction guide.
Table of Contents
- Understand What Abrasion Resistance Measures
- Identify the Areas Most Exposed to Wear
- Compare Materials Beyond Thickness and Denier
- Improve Durability Through Construction
- Choose Appropriate Abrasion Resistance Tests
- Interpret Test Reports Carefully
- Set Clear Requirements Before Bulk Production
- Support Durability Through Fit and Care
- Frequently Asked Questions
- Discuss Your Equestrian Product Requirements
1. Understand What Abrasion Resistance Measures
Abrasion resistance describes a material’s ability to withstand wear caused by rubbing against another surface. Depending on the material and contact conditions, deterioration may appear as surface fuzzing, finish loss, thinning, exposed yarns or eventual holes.
This property is only one part of equestrian gear durability. Tear strength concerns the force required to continue a tear, while seam strength concerns the performance of a stitched connection. Colour transfer, snagging and coating adhesion also require their own consideration. A strong result in one assessment does not establish performance in every other area.
The distinction matters when developing a product specification. A riding glove may retain its underlying fabric while losing an important surface finish. A rug may show little surface wear but still experience damage from a sharp snag.
SATRA’s explanation of rub, abrasion and scuff testing illustrates why repeated mild rubbing, severe scuffing and colour transfer call for different assessments. Test selection should reflect the damage the product is expected to encounter.
Good abrasion resistance therefore supports durability, but it does not independently establish impact protection, overall strength or suitability for every riding activity.
2. Identify the Areas Most Exposed to Wear
Before comparing materials, examine where the finished product contacts the horse, rider, tack and surrounding environment. This helps direct reinforcement and testing towards the areas where they can provide the greatest benefit.
| Product | Areas to examine | Development considerations |
|---|---|---|
| Saddle pads | Girth contact areas, binding and outer panels | Reinforcement position, surface wear and secure stitching |
| Riding gloves | Rein-contact areas, fingers and palm seams | Flexible reinforcement, grip retention and seam placement |
| Horse rugs | Outer shell, closures and strap attachment areas | Surface durability, attachment construction and separate tear testing |
| Chaps | Inner leg panels, lower edges and fastening areas | Repeated rubbing, flexibility and edge finishing |
| Riding breeches | Seat, inner leg and adjoining seams | Fabric wear, stretch recovery and grip-panel durability |
| Straps and webbing | Buckle contact points, folds and edges | Fraying, hardware compatibility and attachment integrity |
Abrasion resistance requirements should differ between these locations. A breathable panel on the back of a glove serves a different purpose from the material gripping the reins. Applying the same construction everywhere may add bulk without addressing the most important wear points.
The riding glove manufacturing guide provides useful context for evaluating hand movement and rein-contact construction. Similarly, comparing full chaps and half chaps helps explain why coverage and panel placement influence material selection.
3. Compare Materials Beyond Thickness and Denier
Material labels provide a starting point, but they cannot replace evidence about the finished material. Abrasion resistance depends on the combination of fibre, yarn, fabric structure, finish and conditions of use.
Woven and Knitted Fabrics
Nylon and polyester appear in many equestrian products, but neither name guarantees a particular durability level. Yarn quality, construction density and finishing can create substantial differences between fabrics made from the same fibre.
Denier describes yarn linear density; it is not an abrasion resistance score. A higher-denier fabric may be appropriate for a particular application, but it should not automatically outrank a lower-denier alternative made with a different construction.
Compare candidate fabrics using relevant test results, handling assessments and finished samples. Weight, stretch, breathability and drying behaviour should remain part of that comparison.
Leather and Coated Materials
Leather should be assessed for both surface appearance and the condition of the underlying material. Changes to the finish do not necessarily indicate the same degree of structural deterioration, so acceptance criteria should distinguish cosmetic wear from functional damage.
Coated fabrics require similar care. The coating and backing perform different roles, and a durable backing does not establish that the exposed coating will retain its appearance or integrity.
A balanced material selection considers abrasion resistance alongside flexibility and comfort. A stiff reinforcement that survives rubbing but restricts movement may still be unsuitable for the intended product.
4. Improve Durability Through Construction
The finished product can wear differently from a flat material sample. Seams, folds, edges and adjoining components change how contact is distributed, making construction an essential part of durability assessment.
Reinforcement should cover the actual rubbing area and remain correctly positioned during use. An undersized patch may leave a vulnerable edge exposed, while an unnecessarily large patch can increase weight or stiffness. Its perimeter also needs attention because raised edges can become contact points.
For saddle pads, examine how the outer fabric, binding, girth area and stitched layers work together. The saddle pad construction guide explains the broader relationship between these components.
Thread can experience direct rubbing even when the surrounding fabric has adequate abrasion resistance. Seam placement, stitch formation and protection of exposed thread therefore deserve review. Choosing a suitable seam involves more than increasing stitch density.
Hardware also affects wear. A rough buckle edge or poorly matched opening can repeatedly rub a strap, creating a problem that stronger fabric alone may not solve.
The practical goal is to improve abrasion resistance across the assembled product. Inspect both sides of each contact point, including whether a reinforcement could increase wear on adjoining tack.
5. Choose Appropriate Abrasion Resistance Tests
Laboratory testing provides controlled evidence for comparing materials, but the method must suit the surface being assessed. A test name without its conditions and endpoint is not enough to support a purchasing decision.
Textile Testing
For suitable textile fabrics, ISO 12947-2 describes Martindale testing to determine specimen breakdown through inspections at specified intervals. Its scope excludes coated fabrics and directs assessment of coated surfaces towards the ISO 5470 series.
Ask the laboratory to identify what constitutes the reported endpoint. Visible deterioration and specimen breakdown are different outcomes, and a report should make clear which one was evaluated.
Coated Fabric Testing
For rubber- or plastics-coated surfaces, ISO 5470-2 provides separate methods for wet and dry abrasion. The standard distinguishes testing the coated surface from assessing an uncoated surface of the material.
This distinction is relevant when evaluating coated reinforcements or other exposed technical surfaces. Identify the face being tested and discuss whether wet conditions are relevant to the intended use.
Leather Testing
ISO 17076-1 specifies a method for determining leather abrasion resistance using a Taber apparatus. A qualified laboratory can help determine whether this method or another assessment better addresses the expected wear mechanism.
These standards describe testing methods, not a universal pass requirement for all equestrian products. Acceptance criteria must be appropriate to the material, product and intended application.
6. Interpret Test Reports Carefully
An abrasion resistance report becomes useful when the result can be traced to a specific material and understood in context. Request the material reference, tested face, method, preparation conditions and reported endpoint alongside the result.
When comparing two materials, check that the abrasive surface, applied load, specimen mounting and relevant test conditions are comparable. Different procedures can produce results that should not be ranked directly.
Also distinguish between a specimen that failed at a recorded point and one that remained intact when testing stopped. “No breakdown at the agreed endpoint” does not identify the material’s eventual failure point.
Avoid converting laboratory cycles into riding hours, washing cycles or years of service. Actual use introduces different pressures, contamination, movement and maintenance patterns. A test result supports a defined comparison; it does not provide a universal lifespan prediction.
For purchasing decisions, assess abrasion resistance together with other relevant evidence. A fabric that performs well under rubbing may still require separate evaluation for stretch recovery, tear strength, water resistance or colourfastness.
Reports should also correspond to the actual material proposed for production. A result from a different finish, backing or construction may provide background information, but it should not be treated as proof for the supplied version.
7. Set Clear Requirements Before Bulk Production
Abrasion resistance should be discussed during development, before material purchasing and production decisions become difficult to change. Vague requests such as “premium quality” or “heavy duty” leave too much room for interpretation.
A practical specification should identify the material reference, product location, test method and agreed acceptance criteria. It should also define unacceptable changes, such as exposed backing, excessive surface loss or damage affecting the intended function.
For example, a glove development brief might require the supplier to compare two palm materials under the same agreed conditions. The review could then consider both test performance and the flexibility of finished gloves. This provides a more useful decision than selecting whichever sample feels thickest.
Use the sample approval checklist to organise material references, construction comments and approved revisions. Retain a clearly identified approval sample so later deliveries can be compared with the agreed product.
Where relevant, discuss abrasion resistance after an agreed cleaning or conditioning procedure. Record the procedure precisely rather than describing the sample only as “washed” or “treated.”
Finally, combine material testing with a controlled evaluation of finished samples. Record wear locations, movement restrictions and changes in appearance. Small production trials can reveal construction issues that flat swatches do not show, while consistent records make subsequent improvements easier to assess.
8. Support Durability Through Fit and Care
Material selection establishes a starting point, but fit and maintenance influence the conditions a product experiences throughout its use.
Equipment that repeatedly shifts may create concentrated rubbing in unintended areas. Before specifying a tougher replacement material, investigate whether sizing, adjustment or panel placement contributes to the wear pattern. Better abrasion resistance cannot compensate for every construction or fit problem.
Cleaning should follow the instructions for the complete product, including its coatings, adhesives, trims and reinforcement materials. Remove accumulated dirt using an appropriate method, and avoid assuming that a treatment suitable for one component is suitable for every other component.
Regular inspection should include edges, seams, straps and contact areas. Compare both interacting surfaces: wear on a pad may coincide with a rough adjoining component, while damage to webbing may follow the shape of a buckle.
The commercial value of abrasion resistance is best considered alongside comfort, maintenance and replacement needs. A lower purchase price does not automatically mean poor value, and a higher price does not prove longer service.
For brands, clear care instructions and specific product descriptions help customers understand the intended application. Claims about durability should reflect available evidence rather than imply that equipment is immune to wear.
Frequently Asked Questions
Does Higher Denier Always Mean Better Abrasion Resistance?
No. Denier describes yarn linear density rather than a finished fabric’s performance under rubbing. Fibre properties, yarn construction, fabric structure and finishing also matter. Compare relevant test results and finished samples before deciding that one fabric is more durable.
Is Abrasion Resistance the Same as Tear Strength?
No. These properties describe different forms of damage. A material can withstand repeated surface rubbing yet respond differently when caught on a sharp object. Products exposed to several wear mechanisms may need several assessments.
Can a High Test Result Predict How Long Horse Gear Will Last?
A laboratory result cannot independently establish service life. Frequency of use, contact pressure, fit, contamination and care all influence wear. Use test data to support material comparisons under defined conditions, then evaluate the complete product in its intended application.
Should Every Part of a Product Use the Toughest Material?
Not necessarily. Reinforcement should correspond to actual wear exposure. Less exposed areas may need greater flexibility, ventilation or softness. Thoughtful panel placement can balance abrasion resistance with comfort without adding unnecessary stiffness throughout the product.
Can Leather and Synthetic Fabrics Be Compared Directly?
They can be evaluated against the requirements of the same product, but results from different test methods should not be treated as interchangeable. Agree on suitable assessments for each material and compare their overall suitability, including flexibility, appearance, care and construction.
Discuss Your Equestrian Product Requirements
Developing durable equestrian products requires attention to the complete design: materials, seams, reinforcements, fit and the surfaces that meet during use. Clear specifications make it easier to compare samples and discuss improvements before a bulk order.
To discuss your sample or custom order, contact BUSHI Sports® through the contact page, send your requirements through WhatsApp, or email info@bushisports.com. Include the product type, intended use, material preferences and any existing test requirements to support a focused discussion.
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