Hydrocarbon resistance test - Oil repellency (ISO method, ISO 14419)
Standardized test used to evaluate the ability of materials to resist and repel hydrocarbon-based liquids, such as oils and greases. This test assesses the material's resistance to staining and penetration by these types of liquids.
In this test, a droplet of a hydrocarbon-based liquid, such as oil, is placed on the surface of the material. The material's response to the liquid is observed over a specific period. The test assesses factors like whether the liquid is repelled, absorbed, or penetrates the material and causes staining.
The results provide information about the material's ability to resist staining and penetration by hydrocarbon liquids. This is particularly relevant for applications where protection against oil-based contaminants is important, such as workwear, protective gear, and outdoor equipment. Materials with good hydrocarbon resistance can help prevent staining, maintain a clean appearance, and provide a barrier against potentially harmful substances.
Determination of water absorption by capillary action (wicking) (in-house method and ISO method, ISO 19074)
Test used to measure how well a material absorbs and transports water through capillary action. This test assesses the ability of a material to draw water in and distribute it within its structure.
In this test, a portion of the material is partially immersed in water, and the water is allowed to travel upwards through the material due to capillary forces. The height to which the water rises within a specific time period is measured. This provides information about the material's wicking ability, which indicates how effectively it can absorb and distribute moisture.
The test is particularly relevant for materials used in footwear, clothing, and other applications where moisture management is important. Materials with good wicking properties can effectively pull moisture away from the body, promoting faster evaporation and enhancing comfort. The results of the test help guide material selection for products that require efficient moisture control to prevent discomfort and other related issues.
Determination of upper/*ousole and sole interlayer bond strength (ISO method, ISO 20344)
Method used to measure the strength of the bond between the upper part (the material that covers the foot) and the sole of a shoe, including any interlayer between them. During this test, the shoe's upper part is subjected to a controlled force to separate it from the sole. The force required to break this bond is measured, providing insight into the strength and quality of the adhesion between these components. This test is essential in evaluating the structural integrity of footwear, ensuring that the upper part remains securely attached to the sole even under stress and use. It helps determine the overall quality and durability of the shoe's construction.
Determination of tear force of trouser-shaped test specimens (Single tear method) - (ISO method, UNE-EN ISO 13937-2)
Test used to assess the tear resistance of fabric materials, specifically trouser-shaped specimens. In this test, a fabric sample shaped like a trouser leg is subjected to a controlled force, inducing a tear along a single path. The force required to initiate and propagate the tear is measured, providing insight into the fabric's ability to withstand tearing forces. This test is relevant in evaluating the durability of fabrics used in garments like pants and other similar applications, where tear resistance is essential for maintaining the integrity of the clothing during use.
Determination of water vapor permeability (WVP) (in-house method based on ISO 20344 modified)
Test used to measure the ability of a material, typically used in footwear, to allow water vapor to pass through it. This test assesses how well a material can breathe, meaning how effectively it allows moisture vapor (such as sweat) to escape from within the footwear.
In this test, a sample of the material is placed between two chambers. One chamber has a higher humidity level, while the other has a lower humidity level. The rate at which water vapor passes through the material from the higher humidity chamber to the lower humidity chamber is measured. This provides information about the material's water vapor permeability.
The test is essential for evaluating the breathability of footwear materials, which impacts the comfort of the wearer's feet. Footwear that effectively allows moisture to escape can help prevent discomfort, odor, and other issues related to excessive moisture buildup within the shoe. The results of this test help to select materials that strike a balance between keeping feet dry and maintaining the footwear's overall performance.
Determination of the internal volume in the toe area of finished footwear
Test used to measure the available space or volume inside the toe area of a completed shoe. This test provides information about the roominess and fit of the shoe's front portion, where the toes are situated.
During the test, the shoe is filled with a material that conforms to the shape of the shoe's internal space, typically a material like foam or grains. The volume of the filling material is then measured, which gives an indication of the internal space within the toe area.
This test is important in assessing the comfort and fit of the footwear, especially in the toe region. It helps ensure that there is adequate space for the toes to move naturally and comfortably without feeling constrained. Proper toe area fit is crucial to prevent discomfort, blisters, and other foot-related issues caused by restricted movement within the shoe.
Dynamic Footwear Stiffness Test for complete footwear (in-house method)
Method used to assess the overall stiffness and flexibility of a complete shoe, including both the upper and the sole. This test evaluates how a footwear product behaves under dynamic conditions, simulating the movements that occur during walking or other activities.
In this test, the entire shoe is subjected to controlled bending and flexing movements using a mechanical device. The test measures the force required to bend the shoe to specific angles and how it responds to repeated flexing cycles. The objective is to understand how the combination of the upper and the sole influences the overall flexibility and comfort of the shoe.
The results of the dynamic footwear stiffness test help manufacturers optimize the design and materials of shoes to provide a balance between support and flexibility. Footwear that is too stiff can hinder natural foot movement, while footwear that is too flexible might lack necessary support. This test ensures that the complete shoe is comfortable, functional, and capable of accommodating the wearer's movements effectively.
Protection against flame - Method of test for limited flame spread (ISO method, ISO 15025)
A standardized test used to evaluate the flame resistance of protective clothing or textiles. This method assesses how a material responds when exposed to a flame, simulating potential fire hazards.
During the test, fabric samples are exposed to a controlled flame for a specified duration. The flame's progress across the fabric is observed, measuring parameters such as the material's ignition time, afterflame time, and afterglow time. The material is then classified based on its performance in terms of these parameters.
The test provides information about a material's ability to resist ignition, limit the spread of flame, and self-extinguish after the ignition source is removed. It helps assess the effectiveness of textiles or garments in providing protection against flame exposure, making it valuable for industries where fire hazards are a concern, such as firefighting, industrial settings, and certain work environments.
Colour fastness to domestic and commercial laundering (ISO method, UNE-EN ISO 105-C06)
A test method used to evaluate the ability of textile materials to retain their color when subjected to repeated washing cycles, both in domestic and commercial settings.
In this test, fabric samples are exposed to controlled washing and drying procedures that simulate typical laundering conditions. The samples are washed alongside a set of specified reference fabrics, and any color changes in the test samples are compared to the reference fabrics to determine the degree of color fastness.
The results provide information about how well a textile material resists color fading or bleeding during washing and drying processes. This is crucial for assessing the long-term appearance and durability of fabrics used in various applications, ensuring that they maintain their desired color and appearance even after repeated laundering.
Determination of dimensional change in washing and drying (ISO method, UNE-EN ISO 5077)
Standardized test method used to measure the change in size of textile materials after undergoing washing and drying cycles.
In this test, fabric samples are measured before being subjected to controlled washing and drying procedures. After the cycles are completed, the samples are measured again, and the difference in dimensions is calculated. This process helps to evaluate how much the fabric shrinks or expands due to the mechanical and thermal stresses of washing and drying.
The test provides information about the fabric's ability to retain its original size and shape after exposure to common laundering conditions. It is essential for assessing the stability of textiles and ensuring that they will maintain their intended fit and appearance throughout their intended lifecycle.
Test methods for uppers, lining and insocks - Abrasion resistance (in-house method based on EN 13520/A1 modified)
Test used to measure the resistance of materials used in the upper part of shoes, linings, and insocks (inner sole) to abrasion.
During the test, the material is subjected to controlled abrasion by rubbing it against a specific surface under defined conditions. The objective is to simulate the wear and tear that the material might experience during regular use. The amount of abrasion is measured, and this information helps assess the material's durability and ability to withstand frictional forces over time.
This test is particularly relevant in evaluating the longevity and quality of shoe components that meet the foot and environment, ensuring that the materials used maintain their integrity and performance even with prolonged use.
Determination of tear strength on leather (ISO method, ISO 20344; ISO 3377-2)
Method used to measure the resistance of leather materials to tearing. In this test, a sample of leather is subjected to controlled force in a specific direction to induce tearing. The force required to tear the leather is measured, providing information about its durability and resistance to tearing forces. This test is particularly relevant in assessing the suitability of leather for various applications, including footwear and protective equipment, where tear resistance is important for product longevity and performance.
Dexterity test for gloves (in-house method / ASTM method)
The "Dexterity Test for Gloves" is a method used to assess the level of dexterity or fine motor skills that can be maintained while wearing gloves. This evaluation is intended to ascertain an individual's adeptness in maneuvering diminutive objects, executing intricate tasks, and sustaining precise movements while having the tested gloves on. This test is particularly relevant in work environments where tasks demand precise hand movements, such as medical procedures, assembly line work, and fine craftsmanship. The results of the dexterity test provide valuable information about the gloves' impact on the wearer's ability to perform intricate tasks effectively, helping to choose the most suitable gloves for specific job requirements.
Grip test for gloves (in-house method)
Test designed to assess the grip capability of gloves. It involves subjecting the gloves to conditions that simulate gripping situations on various surfaces. During the test, the force required to grip and manipulate objects under controlled conditions is measured. This allows for the evaluation of the gloves' effectiveness in providing a secure and reliable grip in different scenarios, which is particularly important in work environments where proper object control and manipulation are crucial for preventing accidents. The test may involve different types of surfaces and objects, and measurements are taken to determine grip capability in terms of force and resistance.
Chemical clothing for demanding applications
Tomasz Bednarek
An innovative protective coverall that protects against particulates and water-based liquids while improving comfort for workers wearing PPE during long shifts has come to market.The Tyvek® 400 Dual TG coverall was developed by DuPont in collaboration with customers involved in the production of electric vehicle (EV) batteries. It is a Category III Type 5 and 6 anti-chemical protective clothing designed for specific applications: when handling chemicals and manufacturing EV batteries, during spray painting, exposure to hazardous substances in powder form or cytostatics in the pharmaceutical industry, and fine particles of hazardous materials or composite materials.
The coverall’s design features solutions that help better protect the wearer. Internal gloves made of Tyvek® fleece are attached to the sleeve cuffs to protect the wrists. Feet and ankles are better protected thanks to Tyvek® socks connected to the legs of the suit. The hood provides a snug fit for safety helmets, and taped seams at the upper body, armpits and wrists help protect the product and process from potential contamination by the wearer or by the garment’s seams during typical activities.
An additional benefit is the reduction of packaging waste, for the reason that the product comes in a cardboard box with no packaging along with one copy of the instructions for use.
GUIDE 9510 - effective protection against chemicals
Jakub Polak
Ensure the highest level of protection when working with chemicals with the exceptional GUIDE 9510 protective gloves. Our gloves are made for medium-duty and precision work, providing not only safety but also comfort. Featuring an innovative Guide XLNT™ technology, the two-layer nitrile waterproof shell construction provides superior grip in dry and oily conditions. In addition, the glove provides an extraordinary barrier against liquids and chemicals, ensuring safety in any situation.
The 18-weave nylon lining makes the glove not only safe, but also exceptionally comfortable, providing a high level of dexterity even in the toughest conditions. The 35-centimeter-long cuff is a guarantee of extended protection, ensuring safety while working.
Don’t risk your safety. Choose GUIDE 9510 protective gloves and work with the confidence that you have the best protection for your hands.
Key features:
· Type A – protection against chemicals.
· Microbiological and virus protection.
· Excellent adhesion in both oily and dry conditions.
· Durable barrier against leakage of liquids and chemicals.
· Approved for direct food contact.
· Oeko-Tex certified.
Ecology, recycling, plastic gloves - how not to fall for green-washing?
The world is changing, and the challenges of protecting the planet are also posing new tasks for glove manufacturers. More and more solutions are appearing on the market, which have ‘eco’, ‘recycled’, ‘climate friendly’ in their names – how to catch up with these solutions and not be fooled by those that are environmentally friendly in name only?
An idea to reduce the negative impact on the environment is to use recycled materials in products. In the case of gloves, the most popular currently are liners made from recycled polyester. In this case, it is worth checking whether the product is certified by independent auditors, or whether the use of recycled materials is just a manufacturer’s claim. The Recycled Claim Standard is an independent, voluntary standard that aims to verify products containing recycled materials. The system is based on verification of the production process (from the purchase of materials, through production, to the sale of the finished product) by external auditors. The standard specifies both a minimum acceptable share of recycled materials, but also a unified definition of “recycled material” and provides consumers with a tool for making informed purchasing decisions.
In the case of gloves, the share of recycled material in the liner cannot be 100% – it is necessary to add fibers that improve flexibility like nylon or spandex. It is also worth remembering that in the case of anti-cutting gloves, the share of recycled fibers will always be lower – due to the need to use cut-protecting fibers. If a manufacturer declares 90% recycled materials in a glove with the CUT parameter – it is certainly practicing ‘green-washing’ and it is worth looking for the ‘fine print’ test to be sure what the product is really made of.
All Nitrex models in the RPET collection are certified to the Recycled Claim Standard and are an environmentally friendlier alternative to standard assembly and anti-cut gloves.
Nitrile gloves - an environmental challenge
Assuming that the average production worker in the food industry uses 3 pairs of disposable gloves per day, one plant employing 1,000 people uses 750,000 pairs of gloves per year. All of them will pollute the environment for the next 100 years.
Can this be changed?
One way for users of disposable gloves to reduce their environmental impact is to choose biodegradable products, meaning those that break down naturally under composting conditions (i.e., like household ‘bio’ waste). This happens by adding a ‘food grade’ element to the glove material – which makes such a product ‘attractive’ to the microorganisms that decompose waste in a landfill.
Does changing the composition of the glove affect its performance? No, because the basic composition remains the same, we just add another ingredient to the mix. The gloves can even be used in contact with chemicals (EN 374). In this case, do biodegradable gloves degrade already in the package? No. The biodegradation process begins only in the presence of microorganisms, in an active landfill, the so-called ‘shelf-life’ is a minimum of 3 years.
The reliability of a product’s ‘biodegradability’ claim can and even should be verified. Biodegradable products should be tested in accordance with ASTM D5511 and ASTM D5526, and the test mimics conditions from biologically active landfills (with the right amount of oxygen, temperature, pressure) and checks the time it takes to break down under natural conditions. Biotouch gloves from Unigloves degrade 90% in 490 days. Compared to the average decomposition time of standard gloves – about 100 years – this is a significant improvement. When choosing biodegradable products, it is worth paying attention to whether they are properly certified and whether their decomposition time is actually as declared by the manufacturer.
Biotouch biodegradable gloves from Unigloves can be a great solution wherever huge quantities of disposable gloves are used, and they are not contaminated with hazardous chemicals after use, i.e. in food processing or big-box stores (food stands), for example.
COBA Europe's new anti-fatigue mats - in an environmentally friendly version!
Maciej Minorowski
COBA Europe has launched a new range of products that are made from recycled materials. The materials are sourced from post-consumer and post-manufacturing waste. The raw materials are recycled from our manufacturing processes. This not only makes the new products environmentally friendly, but also helps reduce waste at our facilities. We are starting a new product line with two new mats – Deckplate ReGen70 and Orthomat® ReGen100. They are available in standard sizes and a “running meter” option.
Deckplate ReGen 70 is made from 70% recycled materials – LINK
- Fatigue-reducing mat for demanding environments
- Two-layer construction provides comfort and high wear resistance
- Vinyl surface with 100% recycled foam backing (hot fused, non-adhesive)
- Available “safety” version with yellow warning edges
- Chamfered edges reduce tripping hazards
Orthomat® ReGen 100 contains up to 100% recycled raw material! – LINK
- Economical anti-fatigue mat for dry workstations
- Single-layer construction for light industrial applications
- Lightweight and easy to transport and carry
- Textured surface provides an attractive appearance
The products are branded with the new COBA logo, allowing them to be easily recognized and integrated into corporate social responsibility (CSR) and corporate environmental policies.
Comfort and safety - COBA Europe industrial mats
Prolonged standing work carries certain health risks. It is associated with the development of musculoskeletal disorders (known as MSDs) and other injuries that affect the condition and efficiency of the musculoskeletal system, including varicose veins, muscle pain, ankle pain, cardiovascular problems. An uncomfortable workstation and forced standing causes workers to suffer from decreased productivity, general fatigue, injuries and ultimately absenteeism from work. Hard concrete floors are considered the worst type of floor for standing. Therefore, increasingly such floors are being covered with anti-fatigue mats to reduce the negative impact of standing on cold floors.
How do the mats work?
The use of anti-fatigue mats is one of the most effective ergonomic measures for standing workstations. Ergonomic workstation mats encourage the person standing on them to make minimal movements. Although these movements are barely perceptible, they lead to the activation of the venous pump in the lower extremities and thus counteract the negative effects of prolonged standing.
From studies, surveys and our experience, we can conclude that:
· on average, about 86% of users found that anti-fatigue mats help reduce pain and other serious ailments among employees; and 82% noticed a link between the mats’ performance and increased productivity in their company,
· based strictly on the “muscle” studies conducted of the middle back and lower body, feelings of fatigue and discomfort are reduced by about 30% when using the mats.
COBA Europe offers mats for any working environment – dry, wet, oily or dusty, for single and multi-shift workstations, from station mats to long production lines to custom surfaces. Customers have access to floor specialty products with anti-slip, anti-static (ESD), flame-retardant (welding), electro-insulating or chemical-resistant properties. COBA products are used in the electromechanical, electronic, automotive, aerospace, machining, furniture, logistics and many other sectors.
Do you know what the most common chemicals are?
In order to help your customers choose the best suitable chemical protection solution on a daily basis, it is of utmost importance to know the reactions and consequences that contact with certain substances can cause on a worker’s skin.
The main concern is worker safety. Some chemicals can cause immediate and severe reactions upon contact, such as burns, skin irritation or respiratory problems. Understanding these potential reactions allows the development of safety protocols and protective measures to prevent accidents and injuries. It is essential to train employees to recognize potential contact reactions and take appropriate safety measures. This knowledge can save lives and prevent injuries in the workplace.
Many industries are subject to regulations and standards related to chemical exposure. Understanding potential contact reactions is essential to complying with these regulations. Failure to comply with these regulations can result in legal consequences and fines beyond the harm to worker health.
In summary, knowledge of potential human contact reactions to chemicals is essential to safeguard human health, ensure workplace safety, comply with regulations, protect the environment and prevent legal and liability issues. It is fundamental to the responsible management of chemicals in various industries. To contribute as much as possible to the above, Ansell offers our nearly 130 years of experience and our Ansell Chemical Guardian tool. With it, we can provide information on the breakthrough times of the chemical in use, through its CAS number, against each of the chemical protection gloves we manufacture.
Why is the use of appropriate PPE key to preventing accidents?
Proper Personal Protective Equipment (PPE) is essential to prevent accidents in the workplace and there are several key reasons highlighting its importance in this area.
Different jobs and sectors present various risks and hazards, such as chemical injuries, falls, burns, electric shocks, sharp objects, etc. PPE is designed to provide specific protection against these risks and minimise the impact of accidents by reducing the damage caused to the body. For example, protective gloves can prevent cuts and burns, while protective eyeglasses can prevent flying particles from entering the eyes. Wearing PPE can drastically reduce accidents in the workplace.
Providing adequate PPE demonstrates an employer’s commitment to the safety and well-being of its workers. This can boost employees’ confidence in their working environment, leading to safer work practices. Employers have a legal and moral responsibility to their employees to ensure their safety at work. In many jurisdictions, it is mandatory to provide and use appropriate PPE in certain work situations. It’s the regulatory compliance. Failure to comply with these regulations can result in legal penalties and fines, in addition to risks to worker safety. Providing appropriate PPE is an essential part of this responsibility, and failure to do so can lead to legal and ethical consequences.
Workplace accidents can lead to significant costs for companies, particularly in terms of medical care, compensation, downtime and staff replacement. Investing in appropriate PPE can reduce these costs by preventing accidents.
The use of PPE is an integral part of a safety culture within an organisation. A strong safety culture encourages accident prevention and safety vigilance at all levels.
Abrasion in protective gloves: coatings, types of mission
Justine Bert
Protective gloves are essential for keeping workers safe in a variety of environments. Abrasion is one of the key criteria when choosing a glove, as it determines the glove’s durability and effectiveness in demanding working conditions. Nitrile-coated and polyurethane-coated gloves are two popular options, each with its own advantages and disadvantages in terms of abrasion resistance and adaptability to different tasks.
Polyurethane coating
Polyurethane-coated gloves are renowned for their grip and flexibility, offering excellent dexterity. For tasks requiring fine dexterity, such as assembling small parts, electronics or precision work, polyurethane gloves are more appropriate. Their lightness and flexibility offer superior comfort and better dexterity. The benefits of polyurethane-coated gloves include:
- Comfort: Polyurethane provides excellent comfort and dexterity, which is crucial for precision work. These gloves are generally lightweight, reducing hand fatigue during prolonged use.
- Grip: The polyurethane coating gives the glove an excellent grip. The glove’s grip on objects is very good, providing a perfect grip for handling tasks.
- Excellent abrasion resistance: Polyurethane’s abrasion resistance is far superior to that of other coatings.
Nitrile coating
Nitrile-coated gloves are particularly appreciated for their high resistance to abrasion in dry, greasy and damp environments. In addition, nitrile offers excellent durability, making it ideal for industrial and mechanical environments requiring superior abrasion resistance. Key benefits of nitrile-coated gloves include:
- Durability: Nitrile is highly resistant to wear and tear, extending the life of gloves.
- Water and oil resistance: Nitrile gloves provide effective protection in dry, greasy and wet environments: with a water and oil resistant coating superior to other conventional gloves.
- Comfort and fit: Despite their robustness, these gloves offer a good level of comfort, breathability and a precise fit, which is essential for tasks requiring dexterity.
In conclusion, the choice between nitrile-coated and polyurethane-coated gloves should be guided by the specific requirements of the tasks to be carried out. Workers need to assess the risks of abrasion, the need for chemical resistance and the level of dexterity required to select the most suitable glove.
For 50 years, the LEBON Group’s priority has been the safety of its equipment. As a manufacturer, we manage the production chain, techniques and materials, and we know the demands of production. At LEBON, we have been proud to produce quality gloves for 3 generations. Whether it’s cut-resistant gloves, heat-resistant gloves, protective sleeves or protective equipment, we have the know-how to protect you and your equipment. Our priority is also to provide responsible protective equipment. Clean Pu system, ETP system, responsible transportation, we implement responsible actions and future projects for a better world.
The thinnest level F protective glove on the market: Tegera® 8846
This new cut-resistant glove in gauge 21 is exceptionally thin and therefore provides outstanding dexterity and flexibility, its feel is that of wearing a disposable glove. This makes the gloves ideal for precision work and handling very small and sharp objects. The very thin material provides an ergonomic, comfortable and very soft design, as well as very high breathability.
Thanks to the touchscreen function, it enables easy operation of control systems and tablets. All work tasks can be carried out with the gloves on, all day long. The thinner the glove, the greater the dexterity, flexibility and comfort. The trend among customers is towards thinner gloves, but with the same cut protection. Technological advances have revolutionized cut protection gloves.
In 2012, the first 18-gauge cut-resistant gloves hit the market, offering end users a new dexterity experience, improving efficiency and comfort in their working life. Now comes to the market the next revolution in cut protection gloves: even thinner gloves, made with a 21-gauge knit and very fine fibers, but still achieving the highest cut protection, level F.
The new glove in gauge 21 has a thickness of only 0.5-0.6 mm, compared to our F-cut glove in gauge 18 (TEGERA® 8845) with a thickness of 0.9 mm and common F-cut gloves with a thickness of more than 1.5 mm.
Unique F-cut glove, gauge 21 with PU coating and reinforcement between thumb and index finger.
Areas of application: precise handling of very small objects with sharp edges, installation in narrow areas where the risk of cutting cannot be foreseen; dry/humid environments.
Ejendals provides more than just hand and foot protection. We provide quality and expertise through a comprehensive Safety Concept in which TEGERA® safety gloves and JALAS® safety footwear play an important role in our customer’s lives.
Our products make everyday tasks safer for you and hundreds of thousands of workers around the world. So you can go home in Good shape and invariably enjoy life.
Which protective glove for which task: choosing the right protective glove
Justine Bert
In various industries, the use of protective gloves is essential to ensure the safety of workers. However, with so many choices available it can be difficult to determine which glove is best suited to a specific task. From fine handling to welding to heat protection, each activity requires a particular type of glove to ensure optimum protection.
Cut protection:
For tasks involving the risk of cuts, such as handling sharp objects or using knives, it is crucial to opt for suitable protective gloves. Different levels of protection are available, governed by standard EN388, ranging from A to F. The closer you get to level F, the greater the cut protection, offering maximum protection against blades and sharp objects. Cut-resistant gloves are often made from materials such as high-density polyethylene, stainless steel wire, polyamide or textured polyamide.
Fine handling:
When it comes to tasks requiring fine dexterity, such as assembling parts or handling precise tools, gloves that offer both protection and flexibility are essential. Nitrile or PU-coated nylon gloves are ideal here, as they offer good grip while allowing precise handling of objects. Knitting plays an essential role, as does the gauge. The gauge of a glove is the unit of measurement used to determine the density of the needles on a knitting machine. The higher the gauge, the finer the knitting, and the better the dexterity.
Welding:
For welding work, where heat and splashes of molten metal are potential hazards, gloves specially designed for high temperatures are essential. Welding gloves made of leather, aramid or aluminised fabrics offer effective thermal protection while ensuring dexterity when handling welding tools. To identify effective heat protection, simply refer to the EN407 standard, which has 6 numbers ranging from 1 to 4. The higher the number, the greater the protection.
Protection against heat:
In environments where high temperatures are a risk, such as glassmaking or processing industries, heat insulating gloves are essential to protect hands from burns. Thermal insulating gloves made from leather, aramid or flame-retardant materials offer reliable protection against heat, while allowing safe handling of hot objects.
In conclusion, choosing the right protective glove is essential to ensure the safety of workers in different environments. By taking into account the specifics of each task and the associated risks, it really is possible to select the most appropriate glove to ensure effective hand protection.
For 50 years, the LEBON Group’s priority has been the safety of its equipment. As a manufacturer, we manage the production chain, techniques and materials, and we know the demands of production. At LEBON, we have been proud to produce quality gloves for 3 generations. Whether it’s cut-resistant gloves, heat-resistant gloves, protective sleeves or protective equipment, we have the know-how to protect you and your equipment. Our priority is also to provide responsible protective equipment. Clean Pu system, ETP system, responsible transportation, we implement responsible actions and future projects for a better world.
Welding gloves: what developments for the user?
Justine Bert
Over the years, welding gloves have undergone significant advances in terms of materials, ergonomics and technology. Once made mainly of leather, welding gloves now use technical materials and more innovative cuts to offer greater protection and optimum comfort.
A safe and comfortable welding glove is made from a technical assembly of high-performance flame-retardant materials combined with the finest leathers. This gives the gloves excellent resistance to heat and abrasion. Their resistance to high temperatures and molten metal splashes make them ideal choices for professional welders. What’s more, leather tanning techniques have evolved to make it thinner and more supple, while retaining its insulating properties. The addition of ultra-heat-resistant fibres, such as para-aramid or mineral filament, completes the glove assembly for total heat permeability.
In addition to protection against thermal hazards, manufacturers of welding gloves are now paying particular attention to ergonomics and comfort. Technical advances in insulating materials have also made it possible to design gloves that are lighter yet offer optimum thermal protection, reducing user fatigue during long welding sessions. Modern models incorporate features such as adjustable cuffs and breathable linings to ensure a perfect fit and prevent the build-up of perspiration. In addition, some gloves are designed with pre-formed patterns to follow the natural shape of the hand, reducing fatigue and improving handling. Thanks to a unique complexing, these protective gloves offer optimum comfort for unrivalled agility.
By investing in welding gloves that offer the optimum balance between protection, technology and comfort, users can improve their safety and efficiency in the workplace.
For 50 years, the LEBON Group’s priority has been the safety of its equipment. As a manufacturer, we manage the production chain, techniques and materials, and we know the demands of production. At LEBON, we have been proud to produce quality gloves for 3 generations. Whether it’s cut-resistant gloves, heat-resistant gloves, protective sleeves or protective equipment, we have the know-how to protect you and your equipment. Our priority is also to provide responsible protective equipment. Clean Pu system, ETP system, responsible transportation, we implement responsible actions and future projects for a better world.
How to protect your safety when working in electric vehicle manufacturing?
Francesca Rusconi
Sales of electric vehicles (EVs), cars and motorcycles, are increasing at a rapid pace due to the growing interest of environmentally conscious consumers who are choosing to reduce the use of fossil fuels. Using energy storage systems, such as lithium-ion batteries, these vehicles present a number of safety risks that require the use of personal protective equipment (PPE) prepared for chemical, electrical and thermal hazards.
Interventions on these types of electric vehicles are associated with risks of damage and injury that affect many professionals, such as firefighters, rescue and first responders, clean-up crews, workers in recycling and waste management centers, crane operators, automotive mechanics and other professionals in the automotive sector, such as bodyworkers or painters, or installers of automotive after-sales equipment.
Workers at electric vehicle battery production facilities are exposed to:
1. Electrical risk – EVs store electrical energy, which poses a risk of injury to operators working on the electrical system or its components. A disturbed vehicle (e.g., those involved in an accident) may have defective insulation, with additional risk of electrical shock. Some EVs also generate electricity with wheel spin, posing a risk of shock or arcing if the vehicle is pushed or displaced in the event of an accident.
2. Thermal risk – High-voltage batteries used in EVs consist of several lithium-ion (Li-ion) cells containing highly flammable electrolytes. It is therefore not uncommon for a collision with an electric vehicle to result in a fire that can be very difficult to extinguish.
3. Chemical risk – In addition to the risk of thermal injury, operators must take precautions to mitigate the risk of chemical injury from unintentional contact with battery electrolytes. Care should be taken, especially after a collision, to avoid skin and eye contact, ingestion and inhalation of vapors.
The magnitude of the risk of injury requires an adequate range of PPE, including clothing and hand protection. It is recommended to opt for PPE that offers type 3 or 4 protection against chemical hazards, flame retardant and arc flash protection. Hand protection solutions should have arc flash and shock insulating properties and ensure adequate chemical protection to prevent contact with chemical spills from vehicle batteries involved in an accident.
Another new glove in Ansell's portfolio: Hyflex 11-581
Meet ANSELL’s lightest* gloves, offering 6 times higher cut resistance**.
Enhanced comfort: the HyFlex® 11-581 glove features an ultra-lightweight design, providing 20% lighter* cut protection ISO level F/ANSI level A6.
Enhanced protection: 6 times greater cut resistance** thanks to a new generation of single HPPE yarn developed with INTERCEPT™ Cut Resistance Technology for reliable hand protection.
Excellent grip: thanks to FORTIX™ technology and thumb reinforcement.
Enhanced comfort: the HyFlex® 11-581 protective gloves enable users to work with multiple touchscreen devices.
WHAT IS ANSELL EARTH?
Ansell Earth introduces science-based claims covering five areas of the product lifecycle: material, manufacturing, packaging, use and end-of-life. Ansell Earth represents products that offer environmental benefits throughout their life cycle.
The gloves were manufactured in a facility:
· powered by 83% renewable energy
· certified by Intertek to divert >99% of waste from landfills
· With an accredited environmental management system
Packaging:
· plastic-free
· recyclable
· made of responsibly sourced raw material
* Compared to standard gloves of EN ISO F/ ANSI A6 class.
** Compared to similar gloves made from standard yarn
“Ansell Protects, now more than ever. As CEO, I am determined to see our global expertise leveraged, to deliver innovative, sustainable safety solutions for our customers. As we confront the challenges ahead, your safety is our priority.”
Neil Salmon, Managing Director and Chief Executive Officer
As health and safety regulations evolve, Ansell remains at the forefront, offering the solutions and expertise companies need.
Chemical Protection: The Danger of misunderstanding PPE standards
CE certification is important proof that PPE has been rigorously and independently tested to meet minimum performance standards. However, failure to properly understand individual standards and the tests within them can be dangerous. Unfortunately, standards are often complex, and misunderstanding is not uncommon. The misinterpretation of the chemical suit permeation resistance test is a classic example.
The most dangerous misunderstanding in PPE?
Certification of chemical protective clothing requires a test of permeation resistance against the chemical. This test (EN 6529) produces a “breakthrough time” in minutes, which most users interpret as the time until the chemical first breaks through the fabric and therefor that the suit can be used safely. However, this is a misunderstanding of what “breakthrough” in this context means. And it does not mean the suit is safe to wear.
In fact, the permeation resistance test measures time until the rate of permeation reaches a particular speed. Given that it must take time to reach that speed, some of the chemical MUST permeate through the fabric before the test breakthrough time! Is that volume permeated dangerous to the wearer? That depends on the toxicity of the chemical.
Another problem with this test is that it fails to consider changing conditions. Temperature affects permeation; a 10oC increase could double the permeation rate. Yet, permeation tests are conducted at 23oC, which means for workers in warmer environments the test breakthrough is simply wrong!
Whole Suit Assessment
The test’s inadequacy in determining safety stems from its sole focus on fabric, overlooking potential hazards like chemical leakage through poorly sealed zippers or gaps between the hood, mask, cuffs, gloves, and boots. While the permeation test aids fabric performance comparison, assuming it ensures protection is risky. A comprehensive assessment of chemical suits should consider permeation under varying temperatures and the risk of inward leakage through gaps in the entire suit ensemble.
The PermaSURE® Solution
Until now this has been difficult. However, Lakeland’s PermaSURE® smart-phone app now does precisely this. It measures both: permeation through fabric over time using molecular permeation modelling, and whole suit ingress based on Inward leakage test Protection Factors. In then compares this with known toxicity thresholds of the chemical to define the user Safe-Wear Time. This is the first available method of conducting such a comprehensive assessment of chemical suit protection.
The misunderstanding of this common CE test is a perfect example of the danger of misunderstanding CE standards. Even if PPE is certified, failure to do so can mean that workers are not as protected as you think – or even that they are not protected at all.
Lakeland Industries is a leading global manufacturer of industrial and cleanroom protective apparel.
With multiple manufacturing units on four continents, regional sales and distribution facilities, a global network of distribution partners and more than four decades of experience in the development, design and manufacture of protective clothing, Lakeland is positioned as a leader in the personal protective equipment (PPE) industry. That’s why safety professionals around the world increasingly turn to Lakeland to protect their people and their environments.
Where should you position the strap with adjustable buckles?
Elena Piccinini
BLS is an Italian manufacturer of respiratory protective equipment: our production facilities are located in Italy and Spain, and we rely on a network of selected suppliers, all located in Europe. We are fully committed to the design and manufacture of disposable and reusable respirators, with an in-house research and development department and a laboratory fully focused not only on quality control, but also on the research of new materials.
In 2021/2022, we promoted the EPI4Nano project, carried out by the Itene Research Institute based in Valencia: the aim of the project was to design and validate respiratory protection devices capable of filtering nanoparticles.
New to the Ansell portfolio: Hyflex 11-543
Durable, versatile cut-resistant gloves designed specifically for demanding applications – HyFlex® 11-543.
Enhanced protection: HyFlex® 11-543 gloves are designed with INTERCEPT™ cut resistance technology. They meet stringent EN ISO F/ANSI A7 cut protection standards, greatly enhancing user safety in the workplace.
Heat resistance assured: these gloves meet EN 407 level 1 contact heat requirements. This makes them resistant to temperatures up to 100°C for at least 15 seconds, making them ideal for working in hot environments.
Enhanced durability: Thanks to FORTIX™ Abrasion Resistance technology, HyFlex® 11-543 gloves offer superior abrasion resistance compared to previous models. In addition, their dirt-masking design extends the life of the gloves, providing a longer service life.
Reduced risk of surface defects: HyFlex® 11-543 gloves are silicone-free, which prevents the transfer of contaminants to metal prior to painting, minimizing the risk of surface defects.
Product details:
· anti-electrostatic;
· available in sizes 6-11;
· length: 213-267 mm;
· coating: nitrile;
· gauge: 13;
· liner material: stainless steel, HPPE, nylon, spandex;
· silicone-free.
“Ansell Protects, now more than ever. As CEO, I am determined to see our global expertise leveraged, to deliver innovative, sustainable safety solutions for our customers. As we confront the challenges ahead, your safety is our priority.”
Neil Salmon, Managing Director and Chief Executive Officer
As health and safety regulations evolve, Ansell remains at the forefront, offering the solutions and expertise companies need.
Dangerous effects of nanoparticles and the BLS EPI4Nano project
Nanoparticles are a topic that has been discussed for years. Under certain conditions, exposure to nanoparticles that are too small for the human body’s natural defense mechanisms can have a negative impact on our health and the environment.
What are nanoparticles and why are they so dangerous?
They are particles with a diameter of about 0.001 µm (micrometer) – it is worth noting that disposable masks according to EN 149 are tested with particles with an average diameter of 0.4 µm. Because of their small size, they behave in a way that can be described as intermediate between gases and the rest of the particles, meaning that they can penetrate cells and tissues, move through the body and cause biochemical damage. Many scientific studies have been published on the subject, but it still needs further testing and a better understanding of its scope: nanoparticles are everywhere, as they are generated by various phenomena such as volcanic eruptions and combustion processes, and can largely be found in urban pollution.
In addition, nanoparticles are present in many industries, such as welding, grinding, metal cutting, printing, injection processes, molding, sandblasting, etc. Basically, whenever particles are generated, nanoparticles are also present at the same time, although it is difficult to determine their percentage occurrence.
An Itene (ITENE Research Center) study showed that BLS Zer0 and Zer0 Flat disposable masks, as well as BLS P3 bayonet filters, are able to filter out more than 99% of these nanoparticles, such as carbon nanofibers and metal oxides.
This particular filtration achievement has been combined with a refined cup and flat mask design to address all users’ needs.
BLS is an Italian manufacturer of respiratory protective equipment: our production facilities are located in Italy and Spain, and we rely on a network of selected suppliers, all located in Europe. We are fully committed to the design and manufacture of disposable and reusable respirators, with an in-house research and development department and a laboratory fully focused not only on quality control, but also on the research of new materials. In 2021/2022, we promoted the EPI4Nano project, carried out by the Itene Research Institute based in Valencia: the aim of the project was to design and validate respiratory protection devices capable of filtering nanoparticles.
Hearing protection - hearing protectors AOP III
AOP III hearing protectors are individually molded reusable earplugs that are created based on an impression of the prospective wearer’s ear canal. They are equipped with a special acoustic filter, so they can cope with the noise characteristic of industry without reducing the audibility of speech and alarm signals.
Maximum protection – minimum restrictions
The AOP III hearing protectors provide maximum hearing protection and are made of hard acrylic. They fit tightly to the walls of the ear canal, preventing uncontrolled sound penetration. The professional acoustic filter (see tables below) attenuates noise differently at different frequencies: the sound frequency band (500-2000 Hz) responsible for hearing and understanding speech is less attenuated than high frequencies. This is of great importance in industry, where it is important to protect against excessive noise, and at the same time it is necessary to hear the working machine or alarm signals. The AOP III ear protectors fit in the ear canal, so they are comfortable for the user. They allow freedom of movement of the head and body, prevent dust or dirt from getting into the ears, keep the ear ventilated thanks to the ventilation channel, allow wearing corrective or protective glasses, face shields, head shields, etc.
Product strengths:
1. Small size and low weight: about 4 grams;
2. Professionally selected acoustic filter (taking into account the noise level at the workplace);
3. The ability to communicate, even in noise (the band-pass filter provides perception of the frequency band responsible for understanding speech);
4. Possibility of simultaneous use of protections: head, respiratory tract, eyes;
5. Long service life: recommended service life is 5 years.
AOP III protector attenuation
Audika offers the best and most widely used filters in the industry. They work in an open system, which ensures proper ventilation of the ear, does not cause an unpleasant feeling of pressure and allows to identify the direction of ambient sounds and speech.
Sound attenuation of protectors equipped with F8* NSR 25 dB filter and F10** NSR 25 dB filter:
*F8, red – high attenuation force filter used in heavy industry and metalworking.
**F10, white – a filter with very high damping force used mainly for jobs such as pile driving and operating high-pressure washers; also works well at the shooting range and when we need to concentrate on our studies.
Our company was founded by Hans Demant, who decided to help his wife Camilla lead a better life, without the limitations and inconveniences of hearing loss. He wanted to find a solution for her that was tailored to her needs. Today, we are a company that has been providing state-of-the-art hearing care for many years. Helping people hear better is our passion, which is at the heart of everything we do.
What benefits does the Ultra Comfort series provide to the user?
Comfort and the ability to move fingers freely are features of gloves that are very important for all workers who must use them. Superior comfort and the ability to move the fingers smoothly help reduce hand fatigue to a minimum. Ultra Comfort gloves have a liner made of high-tech knitted fabric with a weave density of 18, which provides the user with a sense of lightness, excellent all-day comfort and freedom of movement. Thanks to the higher number of meshes per inch and the high quality technical yarn, our gloves fit the shape of the hand better, providing a second-skin effect. This denser weave glove liner is more flexible and helps reduce hand fatigue.
WHAT GLOVES DOES MAP PROFESSIONAL OFFER IN THE ULTRA COMFORT SERIES?
We are committed to offering the best solutions to protect workers, so we have not compromised on cut protection. Our precision work gloves are cut resistant from ISO level A to D.
ULTRANE 681: ultralight work gloves for general work.
KRYTECH 692, 693 & 694: ultralight work gloves for applications with cutting risks.
The entire Ultra Comfort series is compatible with any type of touchscreen and is washable at 40°.
Read the informational brochure and test your knowledge by taking the quiz!
Since manufacturing the first flocked glove in 1957, Mapa Professional has been guided by the same motto. Protecting the health of workers using gloves and ensuring a safe and clean working environment. The company’s mission is to be a leader in the market for high-quality protective gloves thanks to the innovation and technical sophistication of its products, the efficiency of its distribution and its understanding of users’ needs.
5AXIS Auditor's Manifesto: Foundations of the auditor's work under the 5AXIS methodology
With rapid change and increasing complexity in today's world, the role of the auditor takes on special importance. To meet these challenges, auditors must operate on the basis of key principles that guarantee the integrity and effectiveness of their work. We present the 5AXIS Auditor's Manifesto - a set of values and principles that form the foundation of our approach to auditing under the innovative 5AXIS methodology. This methodology has been developed to define needs and find the best solutions in a structured way, based on data.
Independence
Auditors must maintain full independence in their activities, which allows for an objective and unbiased assessment of an organization's processes and operations. The 5AXIS methodology supports us in this by providing objective metrics and standards.
Competencies
We are constantly expanding our knowledge and skills to ensure the high quality of our audits. We know the specifics of the industry, the standards and norms that apply, and the 5AXIS methodology helps us identify key areas, guided by the coordinates of functionality, comfort, image, sustainability and sustainability.
Professionalism
We are guided by professionalism and professional ethics in all our activities. We are always mindful of confidentiality, respect for those being audited and compliance with ethical principles. With 5AXIS, we have the tools to make our work even more precise and reliable.
Effectiveness
Our goal is efficiency - we ensure compliance with standards and procedures and identify areas for improvement. The 5AXIS methodology allows us to create our own standards when existing standards are insufficient, which significantly increases the efficiency of our operations.
Accessibility
We are always available to representatives of organizations to explain our findings and recommendations, as well as provide advice and assistance in improving operations. With 5AXIS, our recommendations are not only relevant, but also based on solid data.
Continuous improvement
We strive to continuously improve our skills and knowledge to stay abreast of new standards and norms. We work responsibly, with an eye to future challenges. The 5AXIS methodology, with its approach based on research and innovation, is a key element in our development.
By putting these principles into practice, 5AXIS auditors can effectively support organizations and employees while ensuring transparency, integrity and trust. The 5AXIS methodology helps define needs and find the best solutions. Guided by five fundamental criteria, it's easier to find what you're looking for and get a product or service tailored to your individual needs.
Combine chemical protection and cut resistance in one glove - ULTRANITRIL 410
In industrial environments, workers’ hands are exposed to many risks, including exposure to chemicals and cutting hazards that can lead to serious injury. MAPA PROFESSIONAL offers an ideal solution for many applications where both chemical exposure and cut protection are required, especially in wet or oily environments.
Sometimes workers face both chemical and cut hazards at the same time, leading them to opt for dual protection, often leading to the use of inappropriate or double gloves. This significantly limits their dexterity and may additionally be inconsistent with PPE use. Similarly, in chemical environments, the properties of a glove can be reduced by damage (swelling, hardening, cracking) resulting from handling aggressive chemicals. Therefore, a degradation test in accordance with EN ISO 374-1:2016 has been introduced for all chemical gloves.
MAPA PROFESSIONAL has developed the UltraNitril 410 glove model, providing advanced hand and arm protection against chemical injury and cuts.
CHEMICAL PROTECTION
Introducing our new technology: the TOPCHEM technology, a special blend of PVC and nitrile that forms a barrier to provide increased acid resistance. Your glove will stay in better condition for a longer period of time.
A 100% nitrile glove after 1 hour of contact with 96% sulfuric acid.
UltraNitril 410 glove after 1 hour of contact with 96% sulfuric acid.
The long (35 cm) and folding cuff provides additional protection and prevents chemicals from running down the arm. Reflective lining alerts the user to damage to the chemical barrier.
CUT PROTECTION
The textile portion of the UltraNitril 410 is made of highly effective composite fibers, providing ISO C level cut protection on both the hand and arm. UltraNitril 410 fits perfectly in the hand, providing increased comfort. Its special design offers good flexibility, ease of movement and prevents hand fatigue. With a reinforced grip, our glove provides optimum grip in wet or oily environments, and also has a grade 4 abrasion resistance and shows good mechanical resistance, allowing extended use.
Don’t limit yourself to just chemical protection or cut resistance – choose both with ULTRANITRIL 410 and keep your glove in better condition for longer.
Since manufacturing the first flocked glove in 1957, Mapa Professional has been guided by the same motto. Protecting the health of workers using gloves and ensuring a safe and clean working environment. The company’s mission is to be a leader in the market for high-quality protective gloves thanks to the innovation and technical sophistication of its products, the efficiency of its distribution and its understanding of users’ needs.
Hearing protection - when does noise pose a threat to us?
The hearing protection market offers various solutions for protection against excessive noise. In addition to a range of traditional hearing protectors – headphones, universal single and reusable earplugs – you can also find professional hearing protection. Professional hearing protection is one that provides high protection against excessive noise while minimizing the annoyance associated with its use.
When choosing the right hearing protection, it is worth considering the following factors, among others:
· the noise level prevailing at the workstations;
· the characteristics of the workstation and the activities that the employee performs: leaning, lifting, stepping into crevices, turning the body, head, etc.;
· the physical conditions of the workstation: humidity, temperature, dust;
· user preferences.
Noise is classified based on its intensity expressed in decibels (dB).
The division is presented as follows:
· Below 35 dB: the noise level does not pose a threat to human health, it can be annoying and make it difficult to work in concentration.
· 35 – 75 dB: noise of this intensity negatively affects the central nervous system and increases the feeling of fatigue.
· 75 – 85 dB: this level has a marked reduction in work productivity, and can lead to permanent hearing damage.
· 85 – 130 dB: this is the intensity that significantly damages the hearing organ and can lead to the development of diseases of other systems (nervous, circulatory).
· Above 130 dB: this level of noise causes vibrations of various organs in the human body, leading to serious damage to them. It can cause nausea and vagus disorders.
Prolonged exposure to noise affects the inner ear (cochlea), leading to hearing loss. Noise can also cause tinnitus, an annoying sound experienced even in silence. These are usually temporary, but can become permanent, requiring treatment to prevent potential hearing loss. It is worth noting that the effects of noise do not appear immediately. They usually accumulate over time and manifest themselves after a long period, causing serious health problems and interfering with the overall functioning of the body.
When is an employer required to protect employees’ hearing?
The employer is obliged to order employees to use individual hearing protection when the noise level is 85 decibels (and above). When measuring devices indicate a level of 80 dB, the employer is obliged to provide employees with protective measures, but cannot order them to use them. ng exposure to noise or mechanical vibration.
Our company was founded by Hans Demant, who decided to help his wife Camilla lead a better life, without the limitations and inconveniences of hearing loss. He wanted to find a solution for her that was tailored to her needs. Today, we are a company that has been providing state-of-the-art hearing care for many years. Helping people hear better is our passion, which is at the heart of everything we do.
GREEN PROTECH® range from LEBON
Marine Legrand
Discover a full range of seven bi-polymer protective gloves based on LEBON's BFR® Technology coating. This glove series offers the user a high level of dexterity, a second-skin effect and features unquestionable durability.
The gloves are made from an environmentally friendly water-based coating. The GREEN PROTECH® range is equipped with SCREENTECH technology, so you can use all touchscreen devices with gloves!
For 50 years, the LEBON Group's priority has been the safety of its equipment. As a manufacturer, we manage the production chain, techniques and materials, and we know the demands of production. At LEBON, we have been proud to produce quality gloves for 3 generations. Whether it's cut-resistant gloves, heat-resistant gloves, protective sleeves or protective equipment, we have the know-how to protect you and your equipment. Our priority is also to provide responsible protective equipment. Clean Pu system, ETP system, responsible transportation, we implement responsible actions and future projects for a better world.
5AXIS 5-step process
Katarzyna Podżorska
The 5AXIS methodology provides an effective tool for a thorough and objective evaluation of various types of products and services. Based on independent testing at the ITURRI laboratory, it allows you to take into account the specific needs and requirements of employees and the working environment in which they will be used.
The 5AXIS 5-step process allows you to conduct a security audit in accordance with a design thinking methodology. This approach focuses on creating innovative and useful solutions by understanding user needs, defining problems, generating ideas and prototyping solutions. The result of these activities is finding answers to the expectations and challenges faced by employees.
In this approach, an important element is to conduct research and analysis in order to collect objective data from which to assess what changes should be made and which will be most effective. Once the data has been collected and analyzed, then comes the step of implementing the best solutions and monitoring the effectiveness of the changes made. All these steps should be carried out in an iterative manner, with ongoing dialogue with employees and other stakeholders.
Diagnosis
The first step in the 5AXIS methodology is to skillfully ask pertinent questions and listen to feedback, allowing all challenges to be more fully defined. This diagnosis lays the foundation for further action, enabling the identification of areas for improvement
Design
We then move to the stage of designing solutions that reflect the five coordinates contained in the 5AXIS model. Design is based on an in-depth understanding of user needs and problem definition, leading to the generation of innovative ideas.
Testing
The developed solutions are then tested in a real-world user environment. This stage allows evaluation of the effectiveness and usability of the proposed solutions and allows for possible adjustments.
Implementation
Successful testing is followed by the stage of implementing the designed solutions into reality. The implementation process requires cooperation with various company departments and the provision of adequate technical and training support for employees.
Tracking
The final stage of the 5AXIS process involves monitoring the effectiveness of the implemented solutions. Regular verification makes it possible to assess whether the implemented changes have had the expected effect and to what extent they have met the objectives.
All in all, the 5AXIS methodology is an indispensable tool that not only contributes to improving the safety and efficiency of corporate operations, but also promotes the continuous pursuit of improvement and innovation in the work environment.
Lakeland PermaSURE® solution
Martin Lill, Lakeland
Introducing PermaSURE V4: a smartphone app that provides easy to use safe life calculations for thousands of chemicals for selected Lakeland chemical suits.
Lakeland Industries is a leading global manufacturer of industrial and cleanroom protective apparel. With multiple manufacturing units on four continents, regional sales and distribution facilities, a global network of distribution partners and more than four decades of experience in the development, design and manufacture of protective clothing, Lakeland is positioned as a leader in the personal protective equipment (PPE) industry. That's why safety professionals around the world increasingly turn to Lakeland to protect their people and their environments.