https://www.avient.com/sites/default/files/2024-08/Avient-2023-Sustainability-Report_5.pdf
Reducing Carbon Footprint
What is carbon footprint?
How does Avient help reduce carbon footprint?
We start by helping our customers understand the carbon footprint of their existing materials through Avient’s product carbon footprint
calculator, certified by TÜV Rheinland.
https://www.avient.com/sites/default/files/2024-08/Avient 2023 Sustainability Report_6.pdf
Reducing Carbon Footprint
What is carbon footprint?
How does Avient help reduce carbon footprint?
We start by helping our customers understand the carbon footprint of their existing materials through Avient’s product carbon footprint
calculator, certified by TÜV Rheinland.
https://www.avient.com/sites/default/files/2020-09/stat-tech-for-adas-application-bulletin.pdf
STAT-TECH
AS-10CF/000
BLACK
STAT-TECH
ST3200-0010 NH FR
BLACK
STAT-TECH
ST9620-0020 ES
RED
STAT-TECH
NN-40CF/000 NH
FRV0 NATURAL
Applications
Sensor, Camera
& ECU Housings
Sensor, Camera
& ECU Housings
Sensor, Camera
& ECU Housings
Sensor, Camera
& ECU Housings
Defining
Features
Antistatic
Conductive
EMI Shielding
Flame Retardant
EMI Shielding
Good Chemical
Resistance
High Stiffness
Filler/
Reinforcement
Carbon Fiber,
10% by Wt
—
Nickel-Coated
Carbon Fiber
Carbon Fiber,
40% by Wt
Surface
Resistivity
1.0E+2 to 1.0E+6
ohms
1.5E+4
ohms
1.0E+2 to 1.0E+4
ohms
1.0E+2 to 1.0E+5
ohms
Shielding
Effectiveness
(10GHz, 1/8"
thickness)
— —
61
dB
70
dB
HOW STAT-TECH MATERIAL MAKES THE DIFFERENCE IN AUTOMOTIVE
ADAS SENSORS, CAMERAS AND ECUS
Protection from static buildup – Stat-Tech
material reduces static buildup with surface
resistivity between 1.0E+2 ohms and 1.0E+6 ohms,
minimizing sparks from damaging nearby electrical
components, especially those near fuel storage.
Adding electronics, minimizing footprint – Using
Stat-Tech material enables part consolidation by
allowing multiple sensors, cameras and ECUs to sit
in the same housing without performance concerns.
https://www.avient.com/products/engineered-polymer-formulations/conductive-signal-radiation-shielding-formulations/edgetek
Long Carbon Fiber Reinforcement
reSound™ Ultra-Low Carbon Footprint TPEs
Carbon Fiber
https://www.avient.com/products/polymer-additives/uv-and-light-blocking-additives
Long Carbon Fiber Reinforcement
reSound™ Ultra-Low Carbon Footprint TPEs
Carbon Fiber
https://www.avient.com/sites/default/files/2023-08/Maxxam BIO Bio-Based Polyolefin Formulations Product Bulletin.pdf
KEY CHARACTERISTICS
Formulated with bio-based resin and/or
10–50% filler from renewable plant sources,
Maxxam BIO formulations:
• Reduce product carbon footprint
• Achieve equivalent performance to standard
polyolefin formulations
• Provide good stiffness, durability, impact
resistance and UV stability
• Deliver good surface finish and are easy to color
• Enable customized performance characteristics
depending on application need
• Offer food contact compliance
MARKETS AND APPLICATIONS
Maxxam BIO formulations are suitable for use across
many industries and applications where traditional
polyolefin materials are used, including:
• Transportation Interior Applications -
Decorative profiles, trunk side liners, pillars,
T-cup
• Industrial - Structural parts, furniture
• Consumer - Household goods, personal care
items, packaging, office supplies, food contact
applications
• Electrical and Electronic – Housings, buttons,
junction boxes
SUSTAINABILITY BENEFITS
• Formulated with bio-based resin and/or
10–50% natural filler
• Utilize natural filler from renewable plant
sources including olive seed based powder
and cellulose fiber
• Offer a lower product carbon footprint
compared to traditional petroleum-based
feedstock
• Can be recycled at end of life
PRODUCT BULLETIN
CHARACTERISTICS UNITS
Maxxam BIO
MX5200-5036
Natural FD
Maxxam BIO
MX5200-5030
Natural FD
Maxxam BIO
MX5200-5030
Natural FD X1
Maxxam BIO
MX5200-5001
RS HS Natural
Maxxam BIO
MX5200-5033
RS HS Natural
Maxxam BIO
MX5200-5034
RS HS Natural
Maxxam BIO
MX5200-5035
RS HS Natural
Filler/Reinforcement Unfilled Unfilled Unfilled
30%
Glass Fiber
10%
Mineral
20%
Mineral
30%
Mineral
Density
(ISO 1183)
g/cm 0.90 0.90 0.90 1.12 0.96 1.03 1.12
Tensile Modulus
(ISO 527-1) @ 23°C
MPa 1500 1000 1000 6400 1350 1650 2100
Tensile Stress
(ISO 527-2) @ 23°C
MPa 27.0 20.0 20.0 75.0 13.0 14.0 15.0
Tensile Strain
at Break
(ISO 527-2) @ 23°C
% 5 50 50 3.0 50 37 18
Charpy Notched
(ISO 179)
kJ/m 5 20 25 10 12 10 10
CHARACTERISTICS UNITS
Maxxam BIO
MX5200-5023
RS HS HI
Natural 70
Maxxam BIO
MX5200-5025
RS HS
Natural 70
Maxxam BIO
MX5200-5004
RS HS
Natural 70
Maxxam BIO
MX5200-5003
RS
Natural 70
Maxxam BIO
MX5200-5009
RS HS Natural
70
Maxxam BIO
MX5200-5024
RS HS
Natural 70
Maxxam BIO
MX5200-5022
RS HS
Natural 70
Filler/Reinforcement
15%
Olive Seed
Based
25%
Olive Seed
Based
30%
Olive Seed
Based/
10%
Mineral
35%
Olive Seed
Based/
5%
Mineral
15%
Olive Seed
Based/
17%
Glass Fiber/
Mineral
20%
Olive Seed
Based/
20% Glass/
Mineral
10%
Olive Seed
Based/
20%
Mineral
Density
(ISO 1183)
g/ccm 1.00 1.15 1.10 1.07 1.09 1.25 1.10
Tensile Modulus
(ISO 527-1) @ 23°C
MPa 1750 2000 2700 2500 3800 3500 4100
Tensile Stress
at Break
(ISO 527-2) @ 23°C
MPa 21.0 20.0 30.0 20.0 40.0 35.0 42.0
Tensile Strain
at Break
(ISO 527-2) @ 23°C
% 24 5 3 5 3 4 2
Notched Izod
(ISO 180)
kJ/m 15 7 3 2 5 15 7
MAXXAM BIO POLYOLEFINS – BIO-BASED RESIN – TECHNICAL PERFORMANCE
MAXXAM BIO POLYOLEFINS – OLIVE SEED BASED FILLER – TECHNICAL PERFORMANCE
CHARACTERISTICS UNITS
Maxxam BIO
MX5200-5029 NF HI
UV Black X1
Maxxam BIO
MX5200-5032 NFS
UV Natural
Maxxam BIO
MX5200-5020 NF/NFS
UV Natural X1
Maxxam BIO
MX5200-5016 NF
Natural
Filler/Reinforcement 10% Cellulose Fiber 20% Cellulose Fiber 30% Cellulose Fiber 40% Cellulose Fiber
Density
(ISO 1183)
g/ccm 0.95 1.00 1.02 1.07
Tensile Modulus
ISO 527-1) @ 23°C
MPa 1550 1750 2640 3600
Tensile Stress at Break
(ISO 527-2) @ 23°C
MPa 33 30 48 55
Tensile Strain at Break
(ISO 527-2) @ 23°C
% 8 12 9 4
Charpy Notched Impact
Strength (ISO 179/1eA)
kJ/m2 5 6 5 5
Charpy Unnotched Impact
Strength (ISO 179/1eU)
kJ/m2 33 49 38 30
MAXXAM BIO POLYOLEFINS – CELLULOSE FIBER FILLER – TECHNICAL PERFORMANCE
Copyright © 2023, Avient Corporation.
https://www.avient.com/sites/default/files/2024-09/Complet OnForce LFT Overview _ Brand Brochure.pdf
With appropriate material selection and part design
optimization, long carbon fiber materials can reduce
the weight of components up to 50% compared to
aluminum.
Complēt™ LCF
Long carbon fiber reinforced materials have higher
rigidity/modulus, higher strength, lighter weight, and
more marketability potential than glass fiber, making
it the ideal fiber reinforcement for metal replacement.
Complēt™ PKE
Long glass fiber reinforced polyketone solutions that
deliver excellent chemical resistance, low moisture
uptake, and a reduced carbon footprint.
https://www.avient.com/sites/default/files/2024-08/Avient-2023-Sustainability-Report_6.pdf
Reducing Carbon Footprint
What is carbon footprint?
How does Avient help reduce carbon footprint?
We start by helping our customers understand the carbon footprint of their existing materials through Avient’s product carbon footprint
calculator, certified by TÜV Rheinland.
https://www.avient.com/idea/eco-conscious-alternative-coloring-textiles
A European Parliamentary Research Service (EPRS) study found that the production of clothing and footwear is responsible for about 10% of annual carbon emissions – which is higher than all international flights and maritime shipping emissions combined – using around 79 billion cubic meters of water annually.
Companies wishing to switch from bath-dyeing to spin-dyeing can rely on this expertise and our global footprint to make the switch as easy and efficient as possible.
https://www.avient.com/sites/default/files/2023-08/SEM Solutions for E-Batteries Infographic_v2.pdf
BATTERY JUNCTION BOX
Stat-Tech™ Static Dissipative & Electrically
Conductive Formulations
Surround™ EMI/RFI Shielding Formulations
• Integrated EMI/RFI shielding
• Lightweight
• Easier to process vs metals
MODULE CONNECTOR
Therma-Tech™ Thermally Conductive Formulations
• Flame resistance
• Easy molding
• Good stiffness and mechanical strength
• Thermal conductivity
EV CONNECTOR
Edgetek™ PKE Polyketone Formulations
• Excellent chemical resistance
• Low moisture uptake
• Non-halogenated flame retardant performance
• Colorable (RAL Orange)
• Reduced carbon footprint vs PA6 and PA66
COOLING SYSTEM
Therma-Tech™ Thermally
Conductive Formulations
• Tensile strength
• Chemical resistance
• Thermal conductivity
BATTERY FRAME
Maxxam™ FR Flame Retardant Polyolefin Formulations
Edgetek™ Engineered Polymer Formulations
Polystrand™ Continuous Glass Fiber Reinforced Thermoplastics
• Flame resistance
• Easy molding
• Lightweight
• Non-halogenated flame retardant
HOUSING TRAY
OnForce™ Long Glass Fiber Reinforced
Polypropylene Composites
Stat-Tech™ Static Dissipative & Electrically
Conductive Formulations
Polystrand™ Continuous Glass Fiber
Reinforced Thermoplastics
• Design integration & freedom
• Structural performance
• EMI shielding
BATTERY MANAGEMENT CONTROLLER
Stat-Tech™ Static Dissipative & Electrically Conductive Formulations
Surround™ EMI/RFI Shielding Formulations
• Integrated EMI/RFI shielding
• Lightweight
• Easier to process vs metals
BATTERY HOUSING/COVER
OnForce™ Long Glass Fiber Reinforced Polypropylene Composites
Complēt™ Long Fiber Reinforced Structural Thermoplastics
• Metal replacement
• Lightweighting
• Flame retardancy
• Structural performance
• Design integration & freedom
Polystrand™ Continuous Glass Fiber
Reinforced Thermoplastics
• Localized biaxial reinforcement
• Impact performance
• Overmolding compatibility
• Flame retardancy
• Integrated assembly point stiffening
ENGINEERED MATERIALS FOR EV BATTERIES
CELL MODULE
Therma-Tech™ Thermally
Conductive Formulations
• Flame resistance
• Easy molding
• Good stiffness and
mechanical strength
• Thermal conductivity
UNDERBODY PROTECTION
Polystrand™ Continuous Glass Fiber
Reinforced Thermoplastics
• Superior impact performance
• Significantly lighter than steel
• Simplified integration with housing
• Corrosion resistance
• Flame retardancy