https://www.avient.com/resources/safety-data-sheets?page=6046
BLUE PBT MR CMPD
092BU2010 BLUE PBT
https://www.avient.com/resources/safety-data-sheets?page=5408
PLATA 62 PC/PBT 2
GRIS 343 PC/PBT 2
https://www.avient.com/resources/safety-data-sheets?page=6236
JA6A BLACK EMC-705NZ PBT
202B BLACK*FIX*PBT
https://www.avient.com/resources/safety-data-sheets?page=4045
029GN2011 GREEN PBT
092BN2003 BROWN PBT
https://www.avient.com/sites/default/files/2020-07/sem-w-c-solutions-for-optical-fiber-cable-product-bulletin-a4.pdf
VALUE
ECCOH LSFOH grades can run at high processing
speeds of up to 1,000 m/min and, with a much
lower melting temperature than PBT alternatives,
can greatly enhance manufacturing efficiency.
KEY CHARACTERISTICS
• Faster processing speeds (up to 1,000
m/min) at low wall thickness (100 µm)
• Increased chemical resistance
• Lower gel migration
• ECCOH 6153 UV - optimized for Teroson
• ECCOH 6154 UV - optimized for Unigel
• High color rendition and compatibility with
Avient masterbatch
• High UV resistance
• Very low shrinkage
MARKET & APPLICATIONS
Optical Fiber Cables including:
• Stranded loose tubes – gel-filled/dry
• Micro-modules
• Tight buffer applications – gel-filled/dry
STANDARD COMPLIANCE
• IEC 60794
• NF XP C93-850-1-1:2020
• EN 50289-4-17:2016
• ISO 4892:2016
• ST/CNET/5843 (1998)
PRODUCT BULLETIN
GEL MIGRATION PERFORMANCE
ECCOH LSFOH 6153/6154 UV grades offer greater gel migration performance compared to alternative
ECCOH grades.
https://www.avient.com/sites/default/files/2024-06/Cesa Flame Retardant Product Selection Guide %281%29.pdf
CESA FLAME RETARDANT ADDITIVES – STANDARD OFFERINGS
Cesa Flame Retardant Additives can be used in combination with other colorants or additives, and formulations can be customized for most
applications.
POLYMER PRODUCT NAME PROPERTY PERFORMANCE TYPE DOSAGE/LDR
MATERIAL
CODE
ABS FRABS92991 UL 94 Halogen 35% CC10292991WE
ABS FRABS52399 UL 94 Halogen 5–14% CC10252399WE
HDPE Cesa Flam MB 5101AH UL 94 Halogen 7–16% PEAN698479
Nylon Cesa Flam MB 5728H UL 94 Halogen 8–14% ABA0698450
Nylon Cesa Flam MB 5731NH UL 94 Non-halogen 8–20% ABAN698410
PC Cesa Flam NCA0820018NH UL 94 Non-halogen 2–4% NCA0820018
PC NCAN-Z0N-FN FLMRET 698419 UL 94 Non-halogen 3–8% NCAN698419
PE FRPE94802 ASTM E84 Non-halogen 100% CC103094802F
PE FRPE41011 UL 94 Halogen 20–30% CC1034101160
PET Cesa Flam MB 5525NH UL 1441, UL 94 Non-halogen 6–8% NEAN698534
PET FRPET65462 UL 94 Non-halogen 5–12% CC103265462F
PET/ PBT Cesa Flam MB 5532NH NFPA 701 Non-halogen 4–6% NBAN698451
PP Cesa Flam MB 5201H UL 94 Halogen 6–30% PPAN698410
PP Cesa Flam MB CT-1629NH Cal TB 133, UL 94 Film, NFPA 701 Non-halogen 6–8% PPAN698428
PP FRPP365370 UL 94 Non-halogen 10–20% CC103653702F
PP Copolymer FRPP37654 UL 94 5VA Halogen 100% CC10337654WE
PP Copolymer FRPP53484 UL 94 Halogen 10% CC1035348460
PS FRPS62722 ASTM E84 Halogen 2–4% CC10262722WE
PS/HIPS Cesa Flam SLA0820014H UL 94 Halogen 4–8% SLA0820014H
TPU Cesa Flam 98461NH UL 94 Non-halogen 6–14% RUA0698461
F-SERIES FLAME RETARDANT ADDITIVES
HDPE/PE F-Series UL 94 Non-halogen 10–25% PEA0820024
PE F-Series UL 2335, FM 4998 Non-halogen 10–25% PEA0820069
https://www.avient.com/sites/default/files/2022-12/Mevopur Laser Marking Additives Application Bulletin.pdf
KEY CHARACTERISTICS
• Designed for Nd:YAG lasers operating between
1060-1070 nm
• Available for different polymers including
PP, PE, PC, PBT, POM, ABS, MABS
• Manufactured at four ISO 13485 certified sites,
providing global consistency and increased
security of supply
• Documented change control beyond CAS
number, reducing risk of change
• Can be designed for dark marking on natural
or white/light colored background or light
marking on black/dark background
REGULATORY SUPPORT
• Raw materials tested to:
- ISO 10993-1 and USP biological
evaluation
- European Pharmacopeia 3.1.3/3.1.5
(polyolefin)
- USP (polyethylene)
- ICH Q3D elemental impurities
• Registered Drug Master File (Type III) and/or
Device Master File
• Food contact established with FDA/EU*
APPLICATION BULLETIN
* FDA/EU compliance information available upon request.
https://www.avient.com/sites/default/files/2024-08/Versaflex-Seat Ventilation Tube-Case study Snapshot_0826.pdf
Seat Ventilation Tube Case Study Snapshot
L E A D I N G LU X U RY
C A R M A N U FAC T U R E R
S E A T V E N T I L A T I O N T U B E
• Reliable sealing performance
• Good bonding ASA+PBT
• Excellent chemical resistance and good flexibility
• Provided a TPE with good flexibility to
maintain a tight seal within the ventilation
system, preventing air leaks and ensuring
efficient airflow
• Formulated a durable and chemically
resistant grade to help withstand the various
stresses and environmental conditions that
the ducts may encounter
• Offered quick technical support to fix the
leak problem for customer
Versaflex Thermoplastic Elastomers
KEY REQUIREMENTS
WHY AVIENT?
https://www.avient.com/sites/default/files/2022-07/ECCOH_ 6151 Formulation - Semi-tigh Buffer Indoor Duplex Cable - Application Snapshot_0.pdf
EUROPEAN CABLE
MANUFACTURER
S E M I - T I G H T B U F F E R F O R
I N D O O R D U P L E X C A B L E S
• Low shrinkage for connectorization
• Easy to strip for efficient installation
• Good kink resistance
• Resistance to chemicals and filling compounds
• Provided an alternative solution, with improved
performance, compared to PA12 and PBT
materials on the market
• Reduced shrinkage and improved strippability for
easier installation
• Reduced smoke production, improving overall fire
performance
• Increased processing speeds, reducing overall
manufacturing cost
ECCOH™ 6151 Formulation
KEY REQUIREMENTS
WHY AVIENT?
https://www.avient.com/sites/default/files/2020-09/surround-processing-guide-2020.pdf
TEMPERATURE
Material
Rear
°F (°C)
Center
°F (°C)
Front
°F (°C)
Nozzle
°F (°C)
Melt
°F (°C)
Mold
°F (°C)
Nylon 6,6
14% NiCF
540–570
(280–300)
530–560
(275–290)
530–560
(275–290)
540–570
(280–300)
540–570
(280–300)
200–300
(90–150)
Nylon 6,6
30% SS
540–570
(280–300)
530–560
(275–290)
530–560
(275–290)
540–570
(280–300)
540–570
(280–300)
200–300
(90–150)
PBT
14% NiCF
510–410
(265–280)
490–540
(255–280)
480–530
(250–275)
480–530
(250–275)
480–530
(250–275)
150–250
(65–120)
PC
14% NiCF
540–570
(280–300)
540–570
(280–300)
530–560
(275–290)
530–560
(275–290)
530–560
(275–290)
150–250
(65–120)
ABS
14% NiCF
470–520
(240–270)
460–520
(240–270)
460–520
(240–270)
460–530
(240–275)
460–530
(240–275)
100–200
(40–90)
PP
14% NiCF
440–480
(225–250)
440–480
(225–250)
430–470
(220–245)
420–460
(215–240)
420–460
(215–240)
125–175
(50–80)
DRYING
Material
Temperature
°F (°C)
Time
Minimum
Moisture
Maximum
Moisture
Nylon 6,6
14% NiCF
180 (80) 4–5 hours 0.05% 0.20%
Nylon 6,6
30% SS
180 (80) 4–5 hours 0.05% 0.20%
PBT
14% NiCF
250 (120) 6-8 hours 0.02% 0.03%
PC
14% NiCF
250 (120) 3–4 hours 0.02% 0.02%
ABS
14% NiCF
200 (90) 2–4 hours 0.05% 0.10%
PP
14% NiCF
180 (80) 2–4 hours 0.20% 0.30%
Equipment
• Feed throats smaller than 2.5" may cause bridging due to pellet size
- Larger feed throats will be more advantageous with long fiber EMI shielding resins
• General purpose metering screw is recommended
- Mixing/barrier screws are not recommended
• L/D ratio
- 18:1–20:1 (40% feed, 40% transition, 20% metering)
• Low compression ratio
- 2:1–3:1
• Deep flights recommended
- Metering zone 3.5 mm
- Feed zone 7.5 mm
• Check ring
- Three-piece, free-flowing check ring
• General purpose nozzle (large nozzle tips are recommended)
- Minimum orifice diameter of 7/32"
- Tapered nozzles are not recommended for long fiber EMI shielding resins
• Clamp tonnage:
- 2.5–5 tons/in2
Gates
• Large, free-flow gating recommended
- 0.25" x 0.125" land length
- 0.5" gate depth
Runners
• Full round gate design
• No sharp corners
• Minimum of 0.25" diameter
• Hot runners can be used
PROCESSING
Screw Speed Slower screw speeds are recommended to protect fiber length
Back Pressure Lower back pressure is recommended to protect fiber length
Pack Pressure 60–80% of max injection pressure
Hold Pressure 40–60% of max injection pressure
Cool Time 10–30 seconds (depends on part geometry and dimensional stability)
PROCESS CONSIDERATIONS
Recommended – retain fiber length (maximize conductivity)
• Low shear process
• Low screw speed and screw RPM
• Slow Injection speed
• Fill to 99–100% on first stage of injection
- Reduces potential nesting of fibers at gate location
- Improves mechanical performance near gate location
- Promotes ideal fiber orientation
Resin Rich Surface
• Achieved when using a hot mold temperature and longer cure times
≥ Max mold temperature recommendation
• Improved surface aesthetic
• Reduced surface conductivity
• Could reduce attenuation performance in an assembly
Fiber Rich Surface
• Achieved when using a cold mold temperature and shorter cure times
≤ Minimum mold temperature recommendation
• Improved surface aesthetic
• Reduced surface conductivity
• Could improve attenuation performance in an assembly
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