Specifying Safety Gloves: What Marine Procurement Managers Need to Know

Specifying Safety Gloves: What Marine Procurement Managers Need to Know

We hear from Clair Weston, Marketing Manager, UVEX Safety (UK) Ltd., as she shares UVEX's full answers to the product and service feature in the official IMPA publication - Supply Chain and Sustainability Magazine, Issue 3 2026

Why Hand Protection Fails at Sea: Closing the Gap Between Specification and Reality

In marine operations, hand protection rarely fails on paper, it fails in practice.

Gloves may meet the correct EN ISO standards, pass procurement checks, and align with risk assessments. Yet on deck, in engine rooms, and across dockside operations, they are frequently removed, degraded, or simply not fit for the realities of the job.

The challenge isn’t a lack of awareness. It’s a gap between specification and application, between what looks right in a catalogue and what actually works in wet, unpredictable, high-pressure environments.

For health & safety leaders and procurement professionals, closing this gap requires a more realistic understanding of how gloves perform under real marine conditions, and how people actually use them.

The Reality of Marine Work: More Than Just “Wet Conditions”

Marine environments expose hands to a uniquely complex mix of hazards:

• Persistent moisture and saltwater exposure
• Oils, fuels, and chemical contaminants
• Abrasive surfaces, sharp edges, and moving equipment
• Temperature extremes, particularly in offshore and winter operations

These risks rarely occur in isolation. A deck crew handling mooring lines may experience heavy loads, wet friction, and sudden shock forces simultaneously. An engineer working on fuel systems may deal with oil exposure, fine motor tasks, and confined spaces in the same shift.

This combination makes glove selection far more complex than simply choosing “cut-resistant” or “chemical-resistant” protection.

Where Gloves Break Down in Practice

Even well-specified gloves commonly fail in marine settings due to a few recurring issues:

1. Loss of Grip in Wet and Oily Conditions

Gloves that perform well in dry testing environments often struggle when exposed to seawater or fuel residues. Reduced grip leads not only to inefficiency but increases the risk of dropped objects and sudden strain injuries.

2. Reduced Dexterity

Higher levels of cut or chemical protection typically mean thicker materials. In practice, this can make it difficult to handle tools, operate valves, or complete precision tasks, leading users to remove gloves entirely.

3. Rapid Degradation

Saltwater, UV exposure, and abrasive surfaces accelerate wear. Coatings break down, fibres weaken, and gloves lose their protective properties faster than expected.

4. Contamination and Cross-Use

In fast-paced environments, gloves are often reused across tasks. A glove used for oil handling may then be used for general work, introducing contamination risks that aren’t always visible.

Rethinking the Trade-Offs: How Glove Technology Has Evolved

Historically, glove selection in marine environments has been defined by compromise. Higher cut protection meant thicker materials and reduced dexterity; durable gloves were often heavier and less comfortable; grip performance could come at the expense of flexibility.

However, this narrative is no longer entirely accurate.

Advances in fibre technology, yarn engineering, and coating innovations mean that many of these traditional trade-offs have been significantly reduced. In particular, the development of high-gauge liners (thinner, more flexible constructions) combined with high cut-resistant fibres now allows gloves to deliver strong mechanical protection without sacrificing precision.

In practical terms, this means that:

• Cut protection no longer has to come at the expense of dexterity
  Modern high-gauge gloves can provide high levels of cut resistance while still enabling fine motor tasks such as valve adjustments or component handling
• Durability and comfort are no longer mutually exclusive
  Improved coatings and reinforcement techniques can extend glove lifespan in abrasive marine conditions without adding excessive bulk or rigidity
• Grip performance has become more task-specific and reliable
  Advanced coatings are better able to maintain grip across challenging conditions, including wet and moderately oily environments
• Touchscreen compatibility can help reduce unnecessary glove removal
  When gloves allow wearers to operate touchscreens, handheld devices, and digital controls without removing protection, it helps maintain compliance between tasks and reduces the exposure risk created by repeatedly taking gloves off.

That said, not all compromises have disappeared.

Some trade-offs remain unavoidable, particularly where fundamentally different hazards intersect. For example:

• Gloves designed for chemical resistance may still limit breathability and tactile sensitivity
• Thermal protection for cold environments can reduce flexibility in certain tasks
• Highly specialised coatings may perform exceptionally well in one condition but less so in another

The key shift is not the elimination of trade-offs entirely, but a reduction in unnecessary compromise.

For HSE and procurement professionals, this changes the approach to selection. Rather than assuming limitations and working around them, there is now greater opportunity to specify gloves that meet multiple performance requirements simultaneously, particularly for mechanical risks.

The focus should therefore move from accepting compromise to challenging it, through testing, wearer trials, and a more detailed understanding of what modern glove technology can achieve in real marine conditions.

The Human Factor: Protection Only Works If It’s Worn

One of the most overlooked aspects of hand protection is behavioural.

Gloves are often removed not because workers are unwilling to comply, but because the gloves get in the way of getting the job done.

Common drivers of non-compliance include:

• Poor fit or limited size availability
• Reduced tactile sensitivity
• Excessive sweating or discomfort in prolonged use
• Difficulty performing specific tasks (e.g. knot tying, component assembly)

Comfort and usability are not secondary considerations, they are central to effective protection.

This is why wearer trials in real marine conditions are essential. Gloves should be tested during actual operations: rope handling, maintenance work, valve operation, and equipment assembly, not just brief fitting sessions.

Procurement Challenges: Navigating Complexity Behind the Scenes

For procurement professionals in the marine sector, hand protection is a complex category to manage, balancing risk, usability, cost, and supply consistency in demanding operational environments.

Managing SKU Complexity

A wide range of tasks often leads to an overextended glove portfolio, increasing the risk of misuse and inefficient stock control.

A more effective approach is to rationalise gloves by task type rather than job title, aligning products to core risk areas such as cut resistance, wet grip, chemical handling, or precision work. Clear product differentiation and simple guidance can significantly improve correct selection.

Balancing Standardisation with Operational Reality

Standardisation drives efficiency, but overly rigid approaches can result in gloves that don’t perform across all tasks.

A controlled core range, supported by approved alternatives for specialist applications, allows procurement to maintain consistency while ensuring operational teams have access to suitable protection where it matters most.

Ensuring Supplier Consistency

Certification alone does not guarantee consistent performance. Variations in materials and manufacturing can impact real-world outcomes.

Working with suppliers who demonstrate reliable quality, transparency, and technical support, supported by trials and ongoing reviews, helps ensure gloves perform as expected in marine conditions.

Moving Beyond Unit Price

Focusing solely on unit cost can lead to higher long-term spend through frequent replacement, poor compliance, and operational disruption.

Shifting to a cost-in-use mindset, considering durability, wearer acceptance, and performance, enables better value and more reliable protection over time.

Supporting Procurement as a Strategic Function

Effective glove selection is more than a purchasing decision, it’s a risk and performance enabler.

By taking a structured, real-world approach, procurement teams can move beyond managing supply to actively supporting safer, more efficient marine operations.

Looking Beyond Unit Price: Total Cost of Ownership

In marine applications, the true cost of gloves is rarely reflected in the purchase price.

A more meaningful approach is to evaluate cost in use, considering:

• Lifespan in real working conditions
• Frequency of replacement
• Impact of glove failure on operations
• Time lost due to poor performance or task inefficiency
• Waste generation and disposal costs

For example, a glove that lasts twice as long in abrasive, wet conditions can significantly reduce replacement rates and administrative burden, offsetting a higher initial cost.

In many cases, the cheapest glove is the most expensive over time.

Sustainability: An Increasingly Relevant Factor

Sustainability is becoming a growing consideration in PPE selection, particularly in high-consumption industries such as marine, where replacement rates can be high and operating environments are demanding.

Key factors include:

• Product durability and extended lifecycle
• Reduction in waste from frequent replacement
• Responsible material sourcing
• Packaging and distribution efficiency
• Availability of CO₂ footprint data and product-level documentation

Improving durability remains one of the most impactful steps, fewer replacements not only reduce waste, but also lower the overall environmental footprint associated with manufacturing, transport, and disposal.

Increasingly, organisations are also looking beyond physical product performance to environmental transparency. Gloves supported by CO₂ footprint calculations or environmental product data enable procurement teams to better understand the upstream impact of their purchasing decisions.

This is particularly relevant in the context of Scope 3 emissions, where purchased goods and services can represent a significant proportion of an organisation’s overall carbon footprint. 

Access to reliable product-level data allows procurement and sustainability teams to:

• Make more informed, lower-impact product selections
• Support internal carbon reporting and reduction targets
• Demonstrate measurable progress against sustainability goals

As a result, sustainability in hand protection is no longer just about reducing waste, it is increasingly about making data-driven decisions across the full product lifecycle.

A Practical Framework for Better Glove Selection

Bridging the gap between specification and real-world performance requires a more structured and evidence-based approach.

For HSE and procurement professionals, the focus should shift from selecting “approved” products to identifying solutions that work consistently in marine conditions.

A practical framework includes:

1. Start with Task-Based Risk Assessment

Move beyond broad role-based assessments. Break activities down into specific tasks and identify where risks overlap, such as wet handling combined with cut hazards or chemical exposure alongside precision work.

2. Define Performance, Not Just Protection

Certification is essential, but it is only part of the picture. Specifications should also reflect grip in wet or oily conditions, dexterity, durability, and wearer comfort, all of which directly influence real-world performance.

3. Validate Through Real-World Trials

Short trials or product comparisons are rarely sufficient. Gloves should be tested in live environments, across multiple shifts, and by a cross-section of users to assess how they perform under genuine operational pressure.

4. Evaluate Cost in Use and Operational Impact

Look beyond unit price to consider lifespan, replacement rates, and the impact of glove failure on productivity and safety. This aligns procurement decisions more closely with operational outcomes.

5. Simplify with Purpose

Reducing SKU complexity remains important, but not at the expense of performance. Rationalisation should be driven by task and risk alignment, rather than convenience alone.

6. Integrate Sustainability and Data Transparency

Where possible, incorporate product-level environmental data, including CO₂ footprint information, to support Scope 3 reporting and wider sustainability goals alongside safety and cost considerations.

7. Review and Adapt

Marine environments are dynamic. Regular review of glove performance, particularly when tasks, equipment, or suppliers change, helps ensure protection remains effective over time.

Conclusion: Moving from Compliance to Performance

Hand protection in marine environments cannot be treated as a static compliance exercise.

As this article has shown, failures rarely stem from a lack of certification or awareness, but from a disconnect between what is specified and what is actually required on the ground.

Encouragingly, advances in glove technology mean that many of the historical compromises are no longer necessary. At the same time, increasing pressure around cost, sustainability, and operational efficiency means that procurement decisions carry greater strategic weight than ever.

For HSE and procurement professionals, the opportunity is clear:
to move beyond selecting products that meet minimum requirements, and instead focus on solutions that deliver consistent performance in real conditions.

Ultimately, effective hand protection is not defined by what is specified, it is defined by what is worn, what performs, and what protects in the moment it matters most.

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