Gloves are designed to safeguard hands from various hazards in industrial environments. They are commonly used to protect against chemicals, abrasions, cuts, and extreme temperatures. Key industries that rely on gloves include manufacturing, construction, healthcare, and food processing. These gloves come in various materials such as latex, nitrile, and leather, each offering specific benefits like chemical resistance, durability, and dexterity. By selecting the appropriate type of glove, businesses can enhance worker safety and maintain compliance with industry standards.

Packaging Supplies, also known as packing materials or shipping supplies, encompass a wide range of products designed to protect, contain, and transport goods efficiently. These supplies include items such as boxes, bubble wrap, packing peanuts, tape, and pallets. Key industries that rely heavily on packaging supplies include manufacturing, logistics, e-commerce, food and beverage, pharmaceuticals, and retail. These materials are essential for ensuring product safety, reducing damage during transit, and optimizing storage and handling processes.

Safety Equipment, also known as Personal Protective Equipment (PPE), encompasses a range of products designed to protect workers from hazards in the workplace. This category includes items such as helmets, gloves, goggles, hearing protection, and respiratory masks. Key industries that rely heavily on safety equipment include construction, manufacturing, oil and gas, mining, and chemical processing. These products are essential for ensuring worker safety and compliance with industry regulations.

Workwear, also known as industrial clothing or protective apparel, encompasses a range of garments designed to ensure safety, durability, and comfort for workers in demanding environments. Commonly used in industries such as construction, manufacturing, oil and gas, and utilities, workwear includes items like coveralls, high-visibility vests, flame-resistant clothing, and safety footwear. These products are essential for protecting workers from hazards, enhancing visibility, and maintaining compliance with safety regulations.

Food Service & Restaurant Supplies encompass a wide range of products essential for the efficient operation of food establishments. This category, also known as commercial kitchen supplies or foodservice equipment, includes items such as cookware, utensils, and storage solutions. Key industries that rely on these supplies include restaurants, catering services, hotels, and institutional food service providers such as schools and hospitals. These products are crucial for maintaining high standards of food safety, hygiene, and operational efficiency.

Cleaning & Hygiene Supplies, also known as janitorial supplies or sanitation products, encompass a wide range of items designed to maintain cleanliness and promote health in various environments. This category includes cleaning chemicals, disinfectants, paper products, hand sanitizers, and cleaning equipment such as mops and vacuum cleaners. Key industries that rely on these supplies include healthcare, manufacturing, food processing, hospitality industry, and education. These products are essential for ensuring a safe and sanitary environment, helping to prevent the spread of contaminants and maintain operational efficiency.

Tools, Tapes & Bolts encompass a wide range of essential items used for construction, maintenance, and repair tasks across various industries. This category includes hand tools, power tools, adhesive tapes, and fasteners such as bolts, screws, and nuts. Commonly referred to as hardware supplies or fastening solutions, these products are indispensable in sectors like manufacturing, construction, automotive, and aerospace. They ensure the structural integrity and functionality of machinery, buildings, and vehicles, making them critical for procurement buyers focused on quality and reliability.

Norm: En 388 Material: Cow Split Leather, Natural Coloured / Green Size: 10,5 Rubberized Cuff 
• Double Seam

Norm: En 388 Material: Cowgrain Split Leather, Natural Coloured / Yellow Size: 10,5 Rubberized Cuff 
• Double Seam

Norm: En 388 Material: Cow Split Leather, Natural Coloured Size: 10,5 Top Core Split Leather With Cowhide Split Leather Reinforcement 
• Double Seam 
• Rubberized Cuff

Norm: En 388 Material: Cowgrain Leather, Natural Coloured / Yellow Size: 10,5 Double Seam 
• Cow Grain Leather Reinforcement 
• Rubberized Cuff

Norm: En 388 Material: Pig Grain Leather, Natural Coloured Sizes: 10,5 Lined Palm

Norm: En 388 Material: Pig Grain Leather, Natural Coloured / Yellow Sizes: 10,5 Extra Soft Pig Grain Leather 
• Lined Palm And Fingers 
• Rubberized Cuff

Norm: En 388, En 511 Material: Cow Grain Leather, Naturaly Coloured Sizes: 11 Double Seam 
• Completely Molton Lined 
• Insulation Layer

Norm: En 388, En 511 Material: Cowgrain Leather, Natural Coloured / Yellow Sizes: 10,5 Kwf Tested 
• Palm Of Water Repellant Grain Leather

STRONGHAND OFFIZIER Cowhide Grain Nappa Leather Gloves

Material: Cowgrain Nappa Leather, Yellow Size: 10,5 Soft Cowgrain Nappa Leather 
• Unlined

Norm: En 388 Liner: 100% Cotton, Jersey coating: Vinyl, Green Length: Approx. 35 Cm Sizes: 10,5 Cotton Jersey Liner 
• Sandy Finish Palm coating 
• Good Grip 
• Fully Coated

Norm: En 388 Liner: 100% Cotton, Interlock coating: Vinyl, Red Length: Approx. 27 Cm Size: 10 Cotton Interlock Lining

Norm: En 388 Liner: 100% Cotton, Interlock coating: Vinyl, Red Length: Approx. 35 Cm Size: 10 Cotton Interlock Lining Packing: 120 Pairs

CE Marking is a label that shows a product meets certain safety and environmental standards set by the European Union. To get the CE Marking, a company must test and certify their product meets these standards. CE Marking is required for many products sold in the EU, including electronics, machinery, toys and medical devices. It helps ensure that products are safe for consumers and the environment, and allows for easy trade within the EU.

PPE stands for "personal protective equipment." PPE Category 2 refers to equipment that is more complex, and has a higher level of risk. Examples of PPE Category 2 include safety helmets, ear protection, and fall arrest equipment. In Europe, PPE Category 2 must meet certain safety standards set by the European Union, which means that it must be designed and manufactured to protect the user without causing harm. Companies that make or sell PPE must prove that it meets these standards. They also must have a quality management system in place and have to be audited regularly by a notified body.

EN 388:2003 is a European standard for protective gloves against mechanical risks. It sets requirements for resistance to cuts, tears, punctures, abrasion, and impact. Gloves are tested in labs for these properties and the results are shown as a performance level for each test. The levels are marked on the gloves. This standard also includes requirements for gloves' dexterity, comfort and size.

EN 388:2004 is a European standard that sets out rules for testing protective gloves. It measures how well a glove protects against things like cuts, tears, punctures, abrasion and impact. Test results are given as numbers and symbols, with higher numbers indicating better protection. The standard helps people choose gloves that will keep them safe for different jobs.

EN 388:2008 is a European standard that sets out rules for testing protective gloves. It measures how well a glove protects against things like cuts, tears, punctures, abrasion, impact, blade cut resistance and puncture resistance. Test results are given as numbers and symbols, with higher numbers indicating better protection. The standard also includes a test for blade cut resistance to determine resistance against cutting by sharp tools. The standard helps people choose gloves that will keep them safe for different jobs.

EN 388:2005 is a European standard that sets out rules for testing protective gloves. It measures how well a glove protects against things like cuts, tears, punctures, abrasion, and impact. Test results are given as numbers and symbols, with higher numbers indicating better protection. The standard also includes a test for blade cut resistance and a test for puncture resistance. This standard helps people to choose gloves that will keep them safe for different jobs.

EN 388:2007 is a European standard for testing protective gloves. It measures how well a glove protects against things like cuts, tears, punctures, abrasion, impact, blade cut resistance and puncture resistance. Test results are given as numbers and symbols, with higher numbers indicating better protection. The standard also includes a test for blade cut resistance to determine resistance against cutting by sharp tools. The standard helps people choose gloves that will keep them safe for different jobs.

EN 388:2006 is a European standard for testing protective gloves. It measures how well a glove protects against things like cuts, tears, punctures, abrasion, impact, and blade cut resistance. The standard also includes a test for blade cut resistance to determine resistance against cutting by sharp tools. Test results are given as numbers and symbols, with higher numbers indicating better protection. The standard helps people choose gloves that will keep them safe for different jobs.

EN 388:2016 is a European standard for measuring the performance of protective gloves against mechanical risks (abrasion, cut, tear, and puncture). The standard includes test methods and performance requirements for gloves to be considered compliant. Test results are reported using a series of four numbers, each representing the performance level achieved in one of the tests.

EN 388:2016+A1:2018 is a European standard that defines the requirements and test methods for safety gloves used in general mechanical risks. The standard specifies the requirements for the resistance against abrasion, cut, tear, puncture, and impact. Test results for EN 388:2016+A1:2018 include measurements of abrasion resistance, cut resistance, tear resistance, puncture resistance, and impact resistance. The standard is intended to ensure that safety gloves used in general mechanical risks provide adequate protection for the user.

EN 420:2003 is a European standard that specifies general requirements for protective gloves. It sets rules for the design, construction, and testing of gloves to ensure they are safe for the user and others nearby. Testing includes measurements of mechanical properties, such as abrasion resistance, cut resistance and tear resistance, as well as for harmful substances, such as phthalates. The standard also includes requirements for labeling and instructions for use. It's an updated version of EN 420:1994 and it's intended to ensure that the gloves provide appropriate level of protection, comfort, and ergonomics and to help the users to choose suitable gloves for their specific application.

EN 420:2003+A1:2009 is a European standard that sets out the general requirements for hand protection, including comfort, fit, and dexterity. Performance requirements include resistance to abrasion, cut, tear, puncture, and impact. Test results should show the gloves meet these requirements.

EN 420:2003/AC:2006 is a European standard that specifies general requirements for protective gloves. It is an amendment version of the standard EN 420:2003, it includes any modifications or corrections that have been made to the original standard. It sets rules for the design, construction, and testing of gloves to ensure they are safe for the user and others nearby. Testing includes measurements of mechanical properties, such as abrasion resistance, cut resistance and tear resistance, as well as for harmful substances, such as phthalates. The standard also includes requirements for labeling and instructions for use. It's intended to ensure that the gloves provide appropriate level of protection, comfort, and ergonomics and to help the users to choose suitable gloves for their specific application.

EN 420:1994 is a European standard that specifies general requirements for protective gloves. It sets rules for the design, construction, and testing of gloves to ensure they are safe for the user and others nearby. Testing includes measurements of mechanical properties, such as abrasion resistance, cut resistance and tear resistance, as well as for harmful substances, such as phthalates. The standard also includes requirements for labeling and instructions for use. It's intended to ensure that the gloves provide appropriate level of protection, comfort, and ergonomics and to help the users to choose suitable gloves for their specific application.

EN 388:2016 is an updated European standard that specifies criteria for testing gloves to protect against mechanical risks, including abrasion, cuts, tears, and puncture. The Abrasion Resistance Level 2 classification within this standard indicates a moderate level of protection against wear from rough materials. The abrasion resistance test involves subjecting the glove material to repeated cycles of sandpaper under pressure until the material wears through. Level 2 abrasion resistance means the gloves can withstand between 500 to 1999 cycles before being penetrated. This level of protection is suitable for tasks that involve handling or coming into contact with abrasive materials but not at an extreme or heavy-duty level. Gloves with Level 2 abrasion resistance are well-suited for general handling tasks, offering durability and protection to extend the life of the glove while maintaining good dexterity and comfort.

The EN 388:2016 standard is dedicated to gauging the mechanical risks for hand protection where a Cut Resistance, Coup Test Level 1 indicates minimal resistance to cutting because material achieved between 1.2 and 2.5 cycles before being cut through during the test. It means that the product tested at this level offers basic protection against shallow cuts, suitable for tasks with low risk of cut injuries. The test method used involves a rotating circular blade under a fixed force making contact with the fabric or material being tested. The blade moves back and forth across the material until a cut-through is achieved. The number of cycles required to cut through the sample at a consistent speed determines the cut resistance, with Level 1 being the second lowest rating after level 0. Products at this level are applicable in scenarios where there are minimal hazards from sharp objects, hence ideal for light duties where there is no significant risk of deep cuts.

The standard EN 388:2016, specifically its segment referring to ISO 13997 test, is designed to assess the cut resistance of materials used in protective gloves. A result denoted as 'Level X' means that test is not performed and the cut resistance of the product cannot be guaranteed. 

EN 388:2016 is a European standard that sets criteria for testing the mechanical risks for protective gloves, including abrasion, cut, tear, and puncture resistance. The Tear Resistance Level 2 designation indicates that the gloves have a moderate level of resistance to tearing. The test for tear resistance involves subjecting a sample of the glove material to a force until it tears, and the force required to initiate and propagate the tear is measured. Gloves that achieve Level 2 tear resistance can withstand between 25 to 50 Newtons of force. This level of tear resistance is suitable for tasks where gloves might face moderate stresses that could cause tearing, such as general handling and light industrial work where sharp or jagged materials are handled less frequently. These gloves provide reliable protection and durability in scenarios where some degree of mechanical risk is present but not excessively severe.

The European Norm (EN) 388:2016 standard includes guidelines for assessing the puncture resistance of gloves, where a Puncture Resistance result of Level 3 signifies that the glove material can withstand a force of between 100 to 149 Newtons before being punctured. This result is crucial for ensuring that gloves provide an adequate level of protection against punctures when used in moderate risk environments, offering users safety from potentially harmful sharp objects. The test procedure for determining this metric involves measuring the amount of force required to puncture the glove using a standard-sized stylus. The stylus is pressed against the glove material at a constant speed until a puncture occurs. The weight needed to achieve the puncture is then recorded as the glove's puncture resistance level. For procurement professionals, this result implies that gloves rated at this level are suitable for tasks where there is a significant risk of encountering puncturing hazards, such as handling building materials, waste management, or assembly line work involving mid-level sharp objects.

EN 388:2016 is a European standard that establishes criteria for assessing the protection provided by gloves against mechanical hazards, including tear resistance. The Tear Resistance Level 4 classification represents the highest level of tear resistance defined by this standard, indicating that the gloves can withstand the most substantial forces before tearing. According to the testing methodology, gloves are evaluated by measuring the force required to tear a sample of the glove material, with Level 4 requiring a force of over 75 Newtons to initiate and propagate a tear. This high level of tear resistance is ideal for use in environments where gloves are subjected to significant stress and potential damage, such as in heavy industry, construction, and handling of materials with sharp edges. Gloves achieving this level offer superior durability and are essential for ensuring user safety in high-risk mechanical settings, thereby enhancing work efficiency and reducing the frequency of glove replacement.

EN 388:2016 is a European standard that provides guidelines for assessing the protection levels of gloves against mechanical risks, such as abrasion, cuts, tears, and puncture. The Abrasion Resistance Level 3 indicates a higher level of protection, signifying that the gloves can resist more intensive wear from rough materials. According to the standard, the abrasion resistance test involves rubbing the glove material against sandpaper under a specified pressure until it is worn through. Level 3 abrasion resistance requires that the gloves withstand 2000 to 7999 cycles of abrasion. This enhanced level of durability is appropriate for tasks involving more frequent or more intense contact with abrasive surfaces, such as construction work, woodworking, and handling building materials. Gloves with Level 3 abrasion resistance offer a robust barrier against wear, extending glove life and providing increased protection for the wearer’s hands, thus reducing the risk of injuries in more demanding work environments.

EN 388:2016 is a European standard that specifies methods for testing the resistance of protective gloves against mechanical hazards, such as abrasion, cuts, punctures, and tearing. The Tear Resistance Level 3 indicates a high level of protection, where the gloves can withstand significant tearing forces. The test for determining tear resistance involves subjecting the glove material to a mechanical force until it tears, measuring the force required to initiate and continue the tear. For Level 3, gloves must withstand a force between 50 to 75 Newtons before tearing. This robust level of tear resistance is particularly suitable for demanding environments where gloves are exposed to activities that might cause extensive wear or tearing, such as handling heavy or rough materials, industrial assembly, and construction tasks. Gloves with this level of tear resistance provide enhanced durability and safety, reducing the risk of injuries and increasing the longevity of the glove in tough working conditions.

EN 388:2016 standard features a Coup Test used to measure Cut Resistance, and a result of Level 2 indicates moderate protection against cuts. This level signifies that the material being tested withstood between 2.5 to 5.0 cutting cycles before the blade penetrated the glove during testing. The Coup Test involves a rotating circular blade with a constant force applied, moving back and forth across the material until a cut through occurs. The sharpness of the blade and the distance of blade travel are measured before the test, and after cutting through the material, to ensure accuracy. Practical implications of a Level 2 result suggest the gloves are suitable for tasks with some cut hazards but are not suggested for high-risk cut environments, such as handling heavy or very sharp materials where a higher level of protection might be necessary. This result helps businesses choose gloves tailored for different workplace needs regarding cut risks.

The standard EN 388:2016 includes a test for Puncture Resistance, where a Level 4 result indicates a protective performance that can withstand a force between 100 to 150 newtons. This specific level of puncture resistance reflects a significant protective capability, offering substantial protection against punctures from pointed objects like nails or wires. The test method includes using a standard stylus of a specific diameter, which is pressed against the sample material with increasing force until it punctures the material. A machine used for this test measures the force exerted at the moment the material is punctured. Practical implications of this result for products such as gloves or protective clothing mean that they are suitable for environments where there is a high risk of encountering medium to sharp objects that could pierce through lesser resistant materials, thus ensuring higher safety standards for workers in such conditions. This level of puncture resistance is particularly crucial in industries such as construction or waste management where sharp debris is common.

EN 388:2016 is a European standard that outlines the testing requirements for gloves to determine their level of protection against mechanical hazards, including tear resistance. The Tear Resistance Level 1 classification signifies that the gloves offer basic protection against tearing. The test method involves applying a force to a sample of the glove material to tear it, and the force measured reflects the glove's ability to resist tearing. Level 1 tear resistance means the gloves can withstand a force of between 10 to 25 Newtons before tearing. This basic level of protection is suitable for tasks where there is a minimal risk of tearing due to light manual handling or where gloves are used to prevent scratches or minor abrasions. Gloves with Level 1 tear resistance are appropriate for general activities that do not involve handling sharp or jagged materials.

The European standard EN 388:2016 addresses the puncture resistance of protective gloves, with puncture resistance classified from Levels 1 to 4. Specifically, a Level 1 result indicates minimal puncture resistance. This level of resistance is determined by a test involving a standardized stylus with a specified diameter and force. During the test, the stylus is pressed against the material with a force up to 20 Newtons to assess how well the glove can withstand penetration. A Level 1 rating signifies that the glove provides basic protection against small punctures or stabs, appropriate for areas with minimal risk. Practical implications for this test result suggest the gloves are suitable for light tasks where major risks of punctures are not anticipated, but are not adequate for handling sharp tools or heavy equipment where higher penetration resistance would be necessary. 

The standard EN 388:2016 includes an assessment of Puncture Resistance, where Level 2 signifies that the material has met specific criteria for resistance against puncture. The result of Level 2 in puncture resistance means that the protective glove or material can withstand a force of 60 to 100 newtons before being punctured. The test method used involves using a standardized steel puncture probe that is pushed against the material at a specified speed until it pierces through it. In essence, achieving a Level 2 puncture resistance under EN 388:2006 suggests that the protective equipment offers moderate protection against punctures, making it suitable for environments where there is a risk of encountering sharp objects such as needles, but are not excessively sharp or exert very high force. 

EN 511:2006 is a European standard that sets requirements for the protection against cold for gloves and mittens. It covers factors such as resistance to cold, water penetration and breathability. Testing must be done by a certified lab and must show that the product meets all requirements of the standard. Possible test results would include pass/fail for each requirement, as well as specific measurement data.

The standard EN 388:2016 specifies Cut Resistance for protective gloves, among other standards. A result of 'Level 3' on the Coup Test means that the gloves are certified to withstand at least 5 but less than 10 cycles before being penetrated by a blade. This is based on a specific scale from Level 1 to Level 5, where Level 5 offers the highest protection against cuts. The Coup Test involves using a rotating circular blade under a fixed load moving back and forth across the glove material until cut through occurs. The number of cycles the blade can go through before cutting the fabric determines the cut resistance level. In practical terms, a Level 3 rating in cut resistance indicates that the gloves offer suitable protection for activities involving handling of materials with some sharp edges, such as construction or light assembly tasks, providing a balance between dexterity and cut protection. This level is typically recommended for tasks where there is a moderate risk of cuts and slashes.

The standard EN 511:2006 defines the requirements for protective gloves against cold. The reference to a Water Tightness Level X in this standard typically indicates that the glove has not been tested for water tightness. Water tightness is assessed through a specific test method where the gloves are subjected to water exposure under controlled conditions to check for leakage. The gloves are filled with water and then inspected visually to determine the presence of any water leakage. The practical implications of a Level X result for water tightness suggest that the gloves are either not designed to be waterproof or they failed to meet the minimum criteria for being labeled as water-resistant under normal usage conditions. This information is important for procurement professionals focusing specifically on the need for water-resistant or waterproof protective gloves.

The Convective Cold Level 2 test result of standard EN 511:2006 indicates a thermal insulation measurement range of 0.15 to less than 0.22 m²°C/W. This result means that gloves evaluated under this standard at Level 2 provide moderate insulation from cold air, effectively slowing down the rate of heat loss from the hand when exposed to cold environments; hence, the level denotes a specific degree of protection. The Convective Cold Test employs a specially designed apparatus where a heated mannequin hand in a glove is subjected to controlled cold air environments to measure how much power (in watts) is required for the hand to maintain a consistent temperature of approximately 30°C. The crucial measurement derived—the Index of Thermal Resistance (ITR)—is reflective of the glove's ability to insulate against cold air convection. Level 2 gloves, specifically, are suitable for environments where low to moderate cold air exposure is expected, providing a protective barrier that reduces the rate of heat transfer from the hand, balancing comfort and dexterity with thermal protection.

The standard EN 511:2006 specifies requirements for protective gloves that guard against cold environments. Level 3 in the Contact Cold Test indicates that the gloves have a thermal resistance measured as R >= 0.100 m²°C/W and R < 0.150 m²°C/W. This denotes a moderate to high level of insulation against cold when the glove materials come into contact with cold surfaces. The test involves placing the glove material against metal plates set at different temperatures to assess how well the gloves can prevent heat loss. Practically, this result means that gloves meeting Level 3 standards are suitable for environments where moderate levels of cold are encountered, providing significant protection against heat loss due to contact with cold objects, making them ideal for use in cold storage tasks or outdoor work in cold conditions .

The standard EN 511:2006 specifies requirements and test methods for gloves designed to protect against cold environments, focusing on elements such as convective cold, contact cold, and water permeability. The Convective Cold test, particularly at Level 1, results in a performance level where the thermal insulation (denoted as TR) measured in \(m^2°C/W\) is in the range of 0.10 to less than 0.15. This measurement indicates the glove's ability to provide minimal thermal resistance against cold air. The Convective Cold Test involves placing a glove on an electrically heated hand model, where the power required to maintain the hand at a set temperature (typically around 30°C) in a controlled cooling environment is measured. The glove's performance level is determined based on how much power is needed to keep the hand warm as the surrounding temperature decreases. Level 1 highlights a basic level of insulation against cold air, suitable for environments where slight cold protection is sufficient, but would not be suitable for more severe cold conditions. .

The standard EN 511:2006 specifies requirements for protective gloves that guard against cold environments. Cold Contact result Level 2 indicates moderate insulation against contact cold, quantified with a thermal resistance measurement in the range of 0.050 to less than 0.100 m²°C/W. This means gloves achieving this level can provide a reasonable amount of insulation, helping to reduce heat transfer from the hands to the cold contact surface, thereby lowering the rate at which hands become cold. The measurement of contact cold resistance is performed using a standardized test that involves placing the glove materials against metal plates cooled to different temperatures. The difference in temperature across the glove material is then analyzed to determine its thermal resistance. For practical implications, gloves classified under Level 2 of Cold Contact in EN 511:2006 are suitable for environments or tasks where individuals are exposed to cold objects but do not necessarily involve extreme cold or extended exposure, offering a balance between dexterity and protection from the cold .

Owner-managed, independent and Hanseatic in character: That's us, HELMUT FELDTMANN GmbH. Now in the third generation and for 80 years, protecting people's health has been at the heart of everything we do. We are one of the leading suppliers of personal protective equipment, hoses, operating supplies, big bags, load securing and see ourselves as a high-performance partner to the specialist trade. Wherever protection is needed, we help you to be successful with personal advice and our complete range. From entry-level prices to our premium retail brands, Elysee and Opti-Flex, we offer the full spectrum. Numerous branded articles complete our range.

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