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New edition ANSI/ISEA 105-2024 outlines a new test method for determining cut scores and a revised scale from A1-A9. Click here for more information about the new testing standard.

The ANSI/ISEA 105-2024 blunt force puncture testing uses a probe to simulate a tear or burst hazard. The test measures the amount of force needed for a blunt probe to pierce through PPE material. Results are given in Newtons, which is converted into a 1-5 scale and spans from 10 newtons (Level 1) to 150+ newtons (Level 5) of puncture resistance.

ANSI/ISEA 138 is a new, voluntary standard for the North American market designed to accurately classify different levels of impact protection offered by the impact-resistant gloves on the market. Click here for more information on our G-Tek Impact Series.

EN 388 is a European Standard. Cut Level is determined by the number of cycles it takes a spinning circular blade, that is pulled across the material under a constant weight of 500 grams, to cut the fabric. As the number of cycles increase, so does the glove's ratings. Click here for more information about the EN 388 2016 standard.

New edition ANSI/ISEA 105-2024 outlines a new test method for determining cut scores and a revised scale from A1-A9. Click here for more information about the new testing standard.

The ANSI/ISEA 105-2024 standard outlines test methods for abrasion and is scored from 0-6. The ASTM D3884-09 is used for uncoated gloves and the end point (failure) is the number of abrasion cycles when the first thread or yarn is broken. The larger numbers of cycles indicates greater abrasion resistance of the product and a higher Abrasion Level.

The ANSI/ISEA 105-2024 blunt force puncture testing uses a probe to simulate a tear or burst hazard. The test measures the amount of force needed for a blunt probe to pierce through PPE material. Results are given in Newtons, which is converted into a 1-5 scale and spans from 10 newtons (Level 1) to 150+ newtons (Level 5) of puncture resistance.

EN 388 is a European Standard. Cut Level is determined by the number of cycles it takes a spinning circular blade, that is pulled across the material under a constant weight of 500 grams, to cut the fabric. As the number of cycles increase, so does the glove's ratings. Click here for more information about the EN 388 2016 standard.

To attain the EN 374 pictogram shield gloves must pass at least a Level 2 in three chemicals. The chemicals listed above are the chemicals that passed for this glove.

The EN ISO 374-5 standard measures the ability of gloves to protect users against bacteria and fungi. Gloves with this marking must pass EN374-2 for leak testing.

New edition ANSI/ISEA 105-2024 outlines a new test method for determining cut scores and a revised scale from A1-A9. Click here for more information about the new testing standard.

The ANSI/ISEA 105-2024 standard outlines test methods for abrasion and is scored from 0-6. The ASTM D3389-10 is used for uncoated gloves and the end point (failure) is the number of abrasion cycles when the first thread or yarn is broken. The larger numbers of cycles indicates greater abrasion resistance of the product and a higher Abrasion Level.

The ANSI/ISEA 105-2024 blunt force puncture testing uses a probe to simulate a tear or burst hazard. The test measures the amount of force needed for a blunt probe to pierce through PPE material. Results are given in Newtons, which is converted into a 1-5 scale and spans from 10 newtons (Level 1) to 150+ newtons (Level 5) of puncture resistance.

EN 388 is a European Standard. Cut Level is determined by the number of cycles it takes a spinning circular blade, that is pulled across the material under a constant weight of 500 grams, to cut the fabric. As the number of cycles increase, so does the glove's ratings. Click here for more information about the EN 388 2016 standard.

New edition ANSI/ISEA 105-2024 outlines a new test method for determining cut scores and a revised scale from A1-A9. Click here for more information about the new testing standard.

The ANSI/ISEA 105-2024 standard outlines test methods for abrasion and is scored from 0-6. The ASTM D3884-09 is used for uncoated gloves and the end point (failure) is the number of abrasion cycles when the first thread or yarn is broken. The larger numbers of cycles indicates greater abrasion resistance of the product and a higher Abrasion Level.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

New edition ANSI/ISEA 105-2024 outlines a new test method for determining cut scores and a revised scale from A1-A9. Click here for more information about the new testing standard.

The ANSI/ISEA 105-2024 standard outlines test methods for abrasion and is scored from 0-6. The ASTM D3884-09 is used for uncoated gloves and the end point (failure) is the number of abrasion cycles when the first thread or yarn is broken. The larger numbers of cycles indicates greater abrasion resistance of the product and a higher Abrasion Level.

PIP® has collaborated with global partners like Dyneema® to develop bio-based ultra-high molecular weight polyethylene fiber delivers the same performance as conventional HPPE fibers, but with a lower carbon footprint. This innovative technique utilizes the mass balance approach and further reduces our reliance on fossil fuel-based resources.

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).

ESD is an acronym for electrostatic discharge. This discharge is the rapid transfer of static between two different objects. Although ESD doesn’t typically cause harm to the human body - you might only experience it as a small, surprising shock - it can cause extensive damage to electrical equipment and sensitive instruments. This damage may either be permanent, causing the device to malfunction (known as a catastrophic failure), or it may occur on a smaller scale that would be difficult to detect before the device is sent out for service (known as latent defect).